SECTION RISK PROFILE: CEMETERIES

1. SECTION : CEMETERIES
2. ISTAT CODE : 93.03
3. ISPESL CODE :
SURVEY AREA
4. NATIONAL :
5. REGIONAL :
6. PROVINCIAL : MILAN (metropolitan area)
7. USL : 6 USSL
8. SURVEY YEAR : 1996
9. NUMBER OF EMPLOYEES
9A. ADMINISTRATION : 35 MALES 9A. WORKERS :307 MALES 10. NUMBER of ENTERPRISES: 7 CEMETERIES and CITY MORGUE
11. SURVEY STRUCTURE: ASL CITTÀ DI MILANO former USSL 38 - UOTSLL
12. REPORTING OFFICER
STATUS :
NAME : SUSANNA
SURNAME : CANTONI
ADDRESS : VIA RICORDI, 1
POST CODE : 20131
CITY : MILANO
PROVINCE : MI
PHONE : 02/29505431
FAX : 02/29505430
E-MAIL :
13. ACCIDENTS : TOTAL 340; FATALITIES: NONE
14. OCCUPATIONAL DISEASES
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TYPE |
Number of CASES |
INAIL CODE |
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FOOTNOTE:
ACCIDENTS FROM 1985 TO 1996. THE ISTAT CODE REFERS TO
THE FUNERAL SERVICE AND RELATED ACTIVITIES. THE MORGUE ACTIVITY CODE IS
UNAVAILABLE. ACCIDENTS ARE DESCRIBED IN THE ENCLOSED DOCUMENT “ACCIDENT
ANALYSIS”
ACCIDENT
ANALYSIS
The accident analysis includes events which occurred
in the 7 Milan metropolitan area cemeteries: Lambrate, Maggiore, Monumentale,
Greco, Baggio, Chiaravalle, Bruzzano and in the City Morgue in the years from
1985 to 1990 and from 1991 to 1996.
The accident
analysis was performed using the accident registers of the entire section. Such
registers prevailingly enclose data relating to accidents with a prognosis
exceeding three days. Consequently the actual number of accidents is likely to
be greater than the reported number.
A total of 340 accidents occurred during the overall
12 year period. The following is the accident/cemetery break down:
Baggio: 11 accidents
Bruzzano: 49
accidents
Chiaravalle: 19 accidents
Greco: 12 accidents
Lambrate: 26
accidents
Maggiore: 154
accidents
Monumentale: 59
accidents
Morgue: 10 accidents
A total of 202 accidents occurred during the period
1985-1990. During the same period the average attendance of all employees
(cemeteries and Morgue) was 425 employees/annum.
The calculated frequency index (F.I.) is:
202 x 1.000.000
F.I. = -------------------------------- = 45,74.422.000 extrapolated working hours
A more detailed assessment was made on the last
three-year period by virtue of more accurate data concerning actual number of
hours worked.
During the three-year period 1994-1995-1996, 57
accidents occurred.
Average employee attendance for the period was 233 employees/annum.
The frequency index is:
57 x 1.000.000
F.I. = -------------------------------- = 471.213.016 extrapolated working hours
Please note that the cemetery section F.I. remains
relatively stable around the 45-47 mark.
A comparison of the FIs of other economic sectors,
based on INAIL 1992-1993-1994 data shows the following results:
BUILDING CONSTRUCTION = 52,5 approx. (mean values)
ENGINEERING = 38,5
" "
TRANSPORT = 34
" "
CHEMICAL = 30
" "
TEXTILES = 21
" "
A comparison of the various FIs indicates that
cemetery-section accidents are ranked second to those of the building
construction section (F.I.= 52.5), notoriously top ranked. Cemetery-section FIs
are substantially higher than Engineering (F.I.= 38.5) and those relating to
the other sectors listed above.
Accidents have been grouped on the basis of the work
cycle phases within cemetery-related activities (see: Chart 1). Data analysis
shows that the “burial” phase reports the highest number of accidents (28.8%);
”exhumation” accounts for 21.7% and “corpse transfer” (8.8%).
|
WORK PHASE |
TOTAL ACCIDENTS |
% |
|
CORPSE TRANSFER |
30 |
8,8 |
|
NICHE BURIAL |
2 |
0,6 |
|
EXHUMATION |
74 |
22 |
|
INTERMENT BURIAL |
98 |
29 |
|
MORGUE ACTIVITIES |
10 |
2,9 |
|
CREMATION |
4 |
1,2 |
|
NICHE EXHUMATION |
2 |
0,6 |
|
OTHER |
66 |
19 |
|
IN TRANSIT |
9 |
2,6 |
|
LANDSCAPING |
45 |
13 |
|
TOTAL |
340 |
|
CHART 1:
Total number of accidents from 1985 to 1996 and work
phase aggregate breakdown.
The substantial number of accidents (120) not
assignable to any specific work cycle phase have been reported as Other,
In-transit and Landscaping.
Item “Other” includes all accidents that occurred
during job breaks (e.g. changing room, meals) and during transfers within
cemetery limits.
Item “In-transit” includes events such as road
accidents that took place while employee was in-transit from home to work.
Item “Landscaping” includes all accidents that
occurred during general grounds maintenance activities (e.g. pruning of
trees/bushes, etc.).
Mean job non-attendance periods, directly related to
accident severity, have been calculated per work cycle phase (see Chart 2).
Duration of job non-attendance periods range from 15 days for the
“Morgue-related activities” work phase to 1.5 days for the “niche burial” work phase. In general
accidents are of the non-severe type.
|
Work phase |
Number of Accidents |
Mean duration (working days) |
|
Morgue-related activities |
10 |
15.01 |
|
Interment burial |
98 |
14.06 |
|
Cremation |
4 |
11 |
|
Corpse transfer |
30 |
9.04 |
|
Exhumation |
74 |
10.02 |
|
Niche exhumation |
2 |
2 |
|
Niche burial |
2 |
1.05 |
|
Other |
66 |
16.01 |
|
Landscaping |
45 |
12.05 |
|
In-transit |
9 |
36.3 |
|
|
|
|
|
Total |
340 |
|
Chart 2:
Total number of accidents from 1985 to 1996: work
phase aggregate and mean non-attendance duration breakdown
Chart 3 reports lesion type and respective frequency
of occurrence. An analysis of the lesion types confirms that lesions are not
severe.
|
LESION TYPE |
TOTAL |
% |
|
CUTTING INJURIES |
77 |
23 |
|
CONTUSION INJURIES |
153 |
45 |
|
LUMBAGO |
55 |
16 |
|
FRACTURE INJURIES |
8 |
2,4 |
|
ALLERGIC OEDEMA |
11 |
3,2 |
|
CORNEAL LESIONS |
15 |
4,4 |
|
SKULL TRAUMAS |
6 |
1,8 |
|
CHEMICAL BURNS |
2 |
0,6 |
|
NON-DEFINED |
12 |
3,5 |
|
TOTAL |
340 |
|
Chart 3:
Total number of accidents from 1985 to 1996 and lesion
type.
Item “Cutting injuries” includes all skin lesions:
abrasions, grazes, puncture/slash and lacerated-contused wounds. Item “Contusion injuries” includes all contusion,
sprain, dislocation, crushing and miscellaneous lesions. Item “Lumbago”
includes all acute lumbago and muscular sprains. Item “Corneal lesions”
includes all eye abrasions and lesions.
An analysis shows that “Contusion injuries” are the
prevailing job-related lesion type, accounting for 45% of the total followed by
“Cutting injuries”(23%) and by "Lumbago"(16%).
In considering the data set, it is quite likely that
events such as soiling/staining, biologic liquid spurts, cuts and lumbago that
have not resulted in a prognosis being released and hence non-attendance, have
not been reported: Such events are nonetheless extremely important for safety
hazard risk assessment purposes. With respect to “Lumbago”, it is likely that
certain events have not been recorded as they were considered as illnesses and
not as occupational accidents. The work anamneses collected by CEMOC –Centro
di Medicina Occupazionale e di Comunità-Centre for occupational and
community medicine) during the performance of the study quoted in the “Expected
injury” chapters, indicate that a large number of individuals complained of
instances of acute “Lumbago” during their working careers (18-20%) .
For certain work cycle phases that generate the
largest number of accidents (exhumation, interment burial and corpse transfer)
a listing has been made of those tasks that most frequently produce accidents
(see Charts 4,5 and 6).
|
EXHUMATION TASKS |
Accident SUB TOTAL |
% |
|
|
|
|
|
COLLECTION OF REMAINS |
14 |
18,9 |
|
SITE PREPARATION |
17 |
23 |
|
TOPSOIL REMOVAL |
9 |
12,2 |
|
EXCAVATION PREPARATIONS |
6 |
8,11 |
|
TOMBSTONE REMOVAL |
1 |
1,35 |
|
REMOVAL ORNAMENTAL STONEWORK |
3 |
4,05 |
|
TIMBER DISPOSAL |
2 |
2,7 |
|
CASKET RAISING |
2 |
2,7 |
|
ZINC COFFIN TRANSFER |
2 |
2,7 |
|
WASTE DISPOSAL |
4 |
5,41 |
|
SUNDRY |
11 |
14,9 |
|
NON-DEFINED |
3 |
4,05 |
|
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TOTAL |
74 |
|
Chart 4:
Exhumation- total number of accidents and job tasks
|
INTERMENT BURIAL TASKS |
SUB TOTAL |
% |
|
|
|
|
|
EXCAVATION PREPARATION |
31 |
31,6 |
|
SITE PREPARATION |
40 |
40,8 |
|
CASKET LOWERING |
14 |
14,3 |
|
GRAVE CLOSURE |
3 |
3,06 |
|
CASKET
CUTTING |
3 |
3,06 |
|
DESCENT into EXCAVATION |
1 |
1,02 |
|
CASKET HANDLING |
1 |
1,02 |
|
CASKET TRANSFER |
2 |
2,04 |
|
SUNDRY |
3 |
3,06 |
|
|
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|
TOTAL |
98 |
|
Chart 5:
Interment burial – total number of accidents and job task
|
TRANSPORT/TASKS |
SUB TOTAL |
% |
|
|
|
|
|
CASKET UNLOADING |
10 |
33,3 |
|
CASKET LIFTING |
6 |
20 |
|
CASKET TRANSFER |
9 |
30 |
|
WREATH TRANSFER |
2 |
6,67 |
|
SUNDRY |
3 |
10 |
|
|
|
|
|
TOTAL |
30 |
|
Chart 6:
Corpse Transport – total number of accidents and job
tasks
A more detailed accident analysis was not performed
due to lack of data apt to quantify the activity for the entire reference
period (exhumations, interment burials, etc.). The unavailability of such data
does not allow significant incidence values to be established such as to generate
a hazard index.
1. WORK CYCLE PHASE : CORPSE TRANSFER
2. INAIL CODE : 93.03
3. HAZARD FACTOR :
4. HAZARD CODE :
5. Num. of EMPLOYEES : 71 SEXTONS and 196 CEMETERIAL STAFF
Chapter 1 -
"Work Phase Description"
This work cycle phase includes all corpse handling (washing,
dressing) and casket transfer operations from the original loading to the final
handover point and more specifically:
1. casket
transfer from original assignment location (home, hospital, morgue) to the
cemetery is handled by operators called
“sextons”;
2. casket
transfer within cemetery bounds for interment burial, niche burial or cremation
is handled by operators called “cemeterials”;
3. Morgue
staff performs corpse handling from the roadside or other locations, including
home and transfer to the morgue for autopsy purposes. Operations will be
described in detail in the section titled “Morgue-related Activities”
In the first case the corpse is washed, dressed and
placed in the casket prior to being transferred manually to the funeral vehicle.
Manual casket handling (corpse and casket) from the original assignment
location to handover at the cemetery is performed by four operators depending
on weather conditions and staff availability. Specifically, casket handling
along stairways is performed by four operators, one placed in front and three
behind.
Casket transfer entails initial manual casket lifting,
shouldering and transport to the funeral vehicle, loading operations using the
vehicle’s tray and roller sliding load bed.
There are various procedures for casket transfer
within cemetery bounds depending on burial type (interment, niche or
cremation).
Different interment burial procedures are employed
depending on the width of the plot access paths and the ground features:
1)
the funeral vehicle reaches the perimeter path of the
burial plot and the casket is manually transferred to the grave site;
2)
the funeral vehicle reaches an area close to the
burial plot, the casket is manually placed onto an appropriate push trolley and
transferred to the grave site. Where ground conditions do not allow the use of
a push trolley, transfer operations are performed manually by six operators.
The casket is then positioned on wood planks placed
across the trench.
For niche burials, the funeral vehicle delivers the
casket as close as possible to the entrance of the columbarium site. Quite
often the columbarium is a multi-storey structure including one below ground
and one or more above-ground levels.
Four operators manually transfer the casket from the
funeral vehicle onto the push trolley by sliding it off the rear of the vehicle
load bed. The load bed is fitted with a sliding tray and rollers.
If the niche is located on the structure’s ground
floor, the push trolley is transferred directly to the niche. If climbing or
descending is involved (from a few steps to one or more flights), the casket is
again shouldered and transferred along the flight of stairs.
Four operators perform the operation. A fifth
operator, positioned at the casket’s sloping end, stabilizes and manually
supports the casket.
In certain cemeteries lifts/hoists are employed to
transfer the casket to the desired vault storey.
In case of cremation, the casket is raised by four
operators from the funeral vehicle load bed and placed on a push trolley. The
trolley is then rolled to the cool storage rooms or to the lift/hoist for
transfer to the refrigerated cells located on the lower level.
The casket is raised by four operators from the push
trolley and placed on trestle stands in the cool storage rooms. Alternatively
the operators place the casket in the refrigerated cells.
Prior to cremation the casket is transferred from the
refrigerated cells to the cremation hall using a push trolley. The casket is
then transferred from the trolley onto an 18-20 centimetre high handcart and
pushed manually to the cremation furnace.
Occasionally the caskets awaiting niche or interment
burial station in the cemetery storage halls. Often protracted casket
stationing occurs, ranging from a few days to various months for a variety of
reasons (e.g. awaiting tomb construction).
This procedure entails, especially in the warmer
months, the generation of foul-smelling putrefaction gases in addition to the
possibility of liquids filtering from the casket. This generates particular
discomfort to the operators as they perform their job tasks within the storage
areas.
The hygiene and structural conditions of the halls
have been found to be extremely wanting as the premises have:
q non-washable
floors and walls;
q insufficient
ambient air circulation;
q no
conditioning systems;
q no
disinfectant and detergent devices.
Upon completion of each transfer operation, vehicles,
tools and non-disposable PPEs are cleaned. Cleaning is performed manually on an
unprogrammed basis without specific procedures concerning washing and
decontamination operations.
Throwaway PPEs are disposed of in urban waste
collection bins.
Operators at their own cost wash work clothes.
Chapter 2 -
"Equipment and machinery"
·
push trolleys are used to transfer the corpse from
original assignment location to the van and from the funeral vehicle to the
interment, niche burial sites or cremation hall.
·
Funeral vehicle
This equipment is not subject to “EC marking” as it
does not fall within the definition of “machine” as envisaged by the “Machine
Directive” DPRn°459/1996.
The equipment used is prevailingly very old and in
badly kept condition.
Chapter 3 -
"Hazard factor"
Safety hazards encountered during the various
transport phases due to structural features of the in-door/out-door working
environment and to the loads handled:
·
falling/sliding hazards due to ground irregularities
or the presence of fixed external steps;
·
falling, shock, sliding hazards due to load handling
operations being performed within restricted confines (passageways, stairways
and landings, etc.);
·
crushing hazards due to slippage of loads being
handled.
Personal hygiene-environmental hazards due to
the presence of chemical, physical and biologic agents:
·
chemical agent hazard due to the handling of disinfectants
and detergents employed during equipment, work surfaces and PPEs cleaning
operations;
·
physical agent hazard due to exposure to inclement
weather conditions during the performance of all outdoor activities;
·
biologic agent hazard due to the handling of or
contact with objects or work surfaces soiled by potentially infected biologic
fluids coming from the corpses (HBV-HCV-HIV).
Transversal or organizational hazards due to
the nature of the transport and load being handled:
·
ergonomic-related hazards due to manual handling of
loads up to 200 kilograms (casket, zinc coffin, corpse);
·
ergonomic-related hazards due to odd working postures
and the need to exert noticeable physical effort in case of uneven ground,
cramped indoor work spaces and insufficient number of operators (job task
organization);
·
general health hazards and physical discomfort due to
working environment conditions (foul-smelling breathing air, decomposition
gases, biologic fluids filtering from caskets);
·
psychological factors related to the item being
handled and to the scant social recognition for the tasks performed.
Safety hazard estimates are furnished in the
chapter dealing with general accident trends. Accident analysis has been
performed employing accident registers relating to the entire sector
during the years from 1985 to 1996.
Personal hygiene-environmental hazards due to
the handling of disinfectants and detergents may become significant because of
the lack of specific instructions and procedures for the performance of
cleaning and decontamination operations on materials and equipment.
Exposure hazards to extreme weather and temperature
conditions are significant due to organizational shortfalls
leading to lack of/unsuitability of protective clothing.
The above hazards may not be readily quantified.
The biologic agent hazard deriving from
handling of the corpse and contact with fluids filtering from the casket caused
by initial decomposition is high as far as HBV and HCV are concerned especially
when PPEs are not properly used. The high hazard is due to the virus’
protracted survival even in an external environment and its high contamination
levels.
HIV contamination hazard is highest in the initial
post-fatality hours. Subsequently contamination hazard tends to decrease
because of the relatively lower infectivity and the virus’ reduced
environmental survival. Thus, excluding the initial post-fatality hours, the
HIV hazard likelihood is lower though its severity remains nevertheless
relatively high.
In 1990 and again in 1993, all sexton and cemeterial
staff were subjected to blood test in order to assess exposure to biologic
hazard (- markers HBV (1990-1993) and HCV (1993)-).
Hazards related to odd working postures and physical
effort because of manual load handling, though not readily quantifiable, remain
relatively high as high work loads requiring physical effort may cause rachis
lesions, acute lumbago and scapulohumeral link lesions.
During corpse transfer, in addition to lumbar
overloading, many operations involve:
q highly
asymmetric loading of the dorsolumbar tract of the rachis;
q asymmetric
and rotational rachis loading;
q direct
load bearing by the shoulder and resulting hardship sustained by the upper
trapezius muscular structure, cervical rachis tract and associated degenerative
phenomena of the acromioclavicular and scapulohumeral joints.
An analysis of working conditions identified numerous
instances of high mechanical overload of the entire locomotor apparatus and
especially of the lumbar rachis. Axial compression levels are frequently higher
than the first safeguard threshold (350 kgs) and occasionally exceed the
maximum tolerable threshold level (650 kgs).
Overload situations for operators tasked with this
work cycle phase vary depending on daily personal task distribution and transport
operation frequency (sextons: approximately 3000 funerals/annum; cemeterials:
approximately 11,500 including cremations, interment and niche burials).
Acute and chronic spinal column pathologies were
studied using clinical functional rachis composition protocols established by
the EPM research unit (Ergonomia della Postura e del Movimento-
Ergonomics of Posture and Motion), Milan.
The protocols incorporated also various other clinical
tests, prevailingly X-ray tests, for more precise diagnosis definition of
specific cases.
A hazard estimate of the psychologic hardships is
not readily assessable due to the lack of specific studies.
Chapter 4 -
"Expected Injuries"
·
Sprains, contusions, fractures, cuts and
lacerated/contused wounds, crushing injuries due to safety hazards;
·
Eczemas, dermatitis, allergopathies caused by use of
detergents and disinfectants (chemical agents);
·
Colds caused by working outdoors (physical agents);
·
Parenterally transmitted biologic agent infections
(HBV, HCV, HIV);
·
Acute lumbosciaticas, muscular sprains,
cervical/dorsal/ lumbosacral spondyloarthropathies (SAPs) caused by handling of
heavy loads and to odd working postures;
·
Psychological hardship
Report of detected injuries
The accident trend is described in the aforementioned
chapter.
No data relating to potential injuries caused by
chemical and physical agents was found.
Blood test results relating to biologic exposure
hazard (HBV and HCV markers) performed in the period 1990-1993 show that 35% of
sextons and 46% of cemeterial staff tested positive to at least one marker.
Studies performed on other worker groups not
particularly exposed to biologic hazard (e.g. municipal police officers)
produced positive results in 20% of cases.
During the time period 1990-1993 3 new HBV infection cases
were recorded for morgue staff (out of 43 non-immune operators) and 2 new cases
for cemeterial staff (out of 126 non-immune operators). Five individuals that
had tested negative to all markers during 1990, tested positive in 1993 to
HBsAb and/or HBeAb and/or HBcAb markers.
Workers were subsequently subjected to hepatitis B
vaccinations.
The following data results from the medical tests to
which sextons and cemeterial staff was subjected to by CEMOC (Centro di
Medicina Occupazionale e di Comunità-Centre for occupational and community
medicine) in 1990-1991 and 1992-1993, with respect to injuries deriving from
the handling of heavy loads, odd working postures and high physical exertion.
Tests performed during the period 1990-1991 refer to
89 sextons and 280 cemeterial staff. Tests performed during the 1992-1993
period refer to 90 sextons and 257 cemeterial staff.
Data shows a particularly high percentage of
individuals affected by acute lumbago. The number of workers complaining of
substantial episodes of acute lumbago in the course of their working life
totals 18% for sextons and 20% for cemeterial staff. Acute lumbago episodes
that occurred in the year prior to the visit totalled 4.5% for sextons and 8.5%
for cemeterial staff.
The above data shows a prevalence of cervical SAP
(21.3% for sextons and 12.9% for cemeterial staff), dorsal SAP (19.1% for
sextons and 11% for cemeterial staff) and lumbosacral SAP (27% for sextons and
25% for cemeterial staff).
Data thus shows that sextons manifest a tendency to cervical,
dorsal and lumbar rachis complaints from two to three times greater than
workers not exposed to manual load handling hazards. Cemeterial staff manifest
a particularly high tendency to lumbar
rachis complaints with respect to workers not exposed to analogous hazards.
A comparison of data sets shows that acute lumbago
hazards are significantly greater for cemeterial staff (related to intense,
short-duration exertion) while cervical, dorsal and lumbar rachis pathologies
are greater for sextons (related to the frequency of hazardous operations).
Data was confirmed by checks performed during
1992/1993.
Chapter 5 -
"Preventive Measures"
The top priority action is the adoption of work
procedures relying on the introduction of mechanical aids in order to eliminate
or reduce accidents and the ergonomic hazards due to manual handling of
caskets.
The action has not been as yet implemented as various
hypotheses and/or proposals are currently being reviewed.
Potential solutions are often influenced by deep rooted
cultural beliefs relating to mechanized handling of the caskets as well as by
practical difficulties in adapting existing handling devices (e.g. automated
lifting devices used by removals firms) to the specific requirements of casket
handling and, last but not least, the scant financial resources of agencies or
firms.
Actions so far implemented have prevailingly focused
on the issue of new equipment and specific PPEs. These actions have
consequently impacted on biologic, accident and chemical hazard limitation.
Specific PPEs have been issued relating to various
transfer-related activities including non-slip, steel capped footwear;
disposable Tyvek water-proof coveralls; latex and leather hand gloves; face
masks. Staff PPE information and training programmes have been implemented.
Operators have been informed and trained with respect
to equipment washing and decontamination hazards, proper use of specific PPEs
and frequency/methods for washing/decontamination of equipment, materials,
motor vehicles and reusable PPEs.
The creation of a specific cleaning and
decontamination area for equipment and reusable PPE has been made mandatory.
The area must include running water outlets, rubber footwear soaking tanks and
washbasins fitted with lever or foot-operated faucets, liquid detergent and
disposable hand towel dispensers.
In order to counter biologic agent hazards all corpses
are considered as potentially infected. Consequently operators have been
instructed to implement specific procedures and precautions during corpse and
soiled equipment handling operations.
A hepatitis B vaccination campaign has been
implemented.
Work clothes/uniforms shall be laundered by the
Administration in centralised facilities.
Wastes (materials and disposable PPEs) generated
during operations involving contact with corpse materials shall no longer be
treated as normal urban wastes but as special wastes requiring dedicated
“special waste containers”. Such containers shall be stored in adequately
ventilated premises with readily washable, waterproof floor and wall lining
materials.
With respect to load handling hazards, in addition to
the above-mentioned PPEs, the only measure implemented has been that of
declaring operators with certified rachis pathologies as temporary or
permanently non-fit for load handling duties.
In 1990 non-fitness for load handling duties
(temporary or permanent) involved 14 sextons and 40 cemeterial staff
(respectively 17.1% and 14.5% of all operators tested). In 1992 non-fitness
involved an additional 17 sextons and 47 cemeterial staff (respectively 19.8%
and 17.7% of all operators tested).
With respect to hardships caused by structural/hygiene
working conditions in the storage areas, specific instructions were issued as
to the measures to be implemented: air conditioning systems (rapid exhaust of
decomposition gases); adequate cooling systems (refrigerated cells for corpse
preservation); wash/decontamination of floors and walls; wash basins with
lever/foot-operated faucets.
Instructions were issued, during the performance of
the study, with respect to the organization of work tasks with specific
reference to the number of operators involved during transfer operations. Data
on the current implementation of such measures throughout the sector are not
available.
Information and training on load handling methods is
essential. No such programmes have as yet been implemented.
Chapter 6 -
"Outsourcing"
The preparation of the corpse for the funeral service
and all phases of transport may be subject to outsourcing procedures. Funerals
managed directly by private companies fall within this class.
Every year approximately 15,000 funerals take place
within the territorial jurisdiction of the Municipality of Milan, approximately
20% are handled by the Municipality itself.
Chapter 7 -
"Legislative References"
The hereunder listed legislative and bibliographic
references relate to all the phases of the entire working cycle.
·
D.P.R.n°547/1955 – Workplace Accident Prevention Rules
·
D.P.R.n°303/1956 – General Workplace Hygiene Rules
·
D.P.R.n°164/1956 – Construction site accident
prevention Rules
·
D.Lgs.n°277/1991 – Implementation of Directives
n°80/1107/EEC, n°82/605/EEC, n°83/477/EEC, n°86/188/EEC and n°88/642/EEC
relating to protection of workers from chemical, physical and biologic exposure
hazards pursuant to Article 7 of Law n°212, dated 30 July 1990
·
D.Lgs.n°626/1994 and subsequent amendments –
Implementation of Directives n°89/391/EEC, n°89/654/EEC, n°89/655/EEC,
n°89/656/EEC, n°90/269/EEC, n°90/270/EEC,n°90/394/EEC and n°90/679/EEC relating
to the enhancement of worker safety and health
·
D.Lgs.n°475/1992 – Implementation of Council Directive
89/686/EEC dated 21/12/1989 relating to harmonization of member states’
legislation concerning personal protection equipment
·
D.P.R.n°459/1996 – Implementation regulations for
Directives n°89/392/EEC, n°91/368/EEC, n°93/44/EEC and n°93/68/EEC relating to
harmonization of member states’ legislation concerning Machinery
·
D.Lgs.n°494/96 – Implementation of Directive
n°92/57/EEC relating to minimum safety and health requirements for temporary or
mobile construction sites
·
Municipal building and health regulations
·
D.P.R.n°285/1990 – Approval of Mortuary police
Regulations
·
Municipal Mortuary police Regulations
·
Law n°292 dated 05/03/1963 (Mandatory anti-tetanus
vaccination)
·
D.M. 26/04/1990 and D.M. 04/10/1991 (Identification of
risk groups for Hepatitis B virus vaccination)
·
D.P.R.n°203/88 – Implementation of Directives
n°80/779/EEC, n°82/884/EEC, n°84/360/EEC and 85/203/EEC concerning air quality
regulations relating to specific pollution and polluting agents produced by
manufacturing facilities pursuant to Article 15, Law n°183 dated 16/04/1987
·
D.Lgs.n°22/1997 and subsequent amendments –
Implementation of Directives n°91/156/EEC concerning waste disposal, n°91/689/EEC
concerning hazardous wastes and n°94/62/EEC concerning packaging and packaging
wastes
·
Ministry of Health Circular issued 20/06/1983 n°57:
Formaldehyde Uses: hazards deriving from formaldehyde use.
·
D.Lgs.n°626/1994 Legislative Decree Application
Guidelines issued by Autonomous Regions and Provinces Coordination Agency,
October 1996
·
Ministry of Health – National AIDS Commission –
Guidelines to health operators for HIV infection control, Rome 06/09/1989
·
Law n°135 dated 05/06/1990 – Programme of urgent AIDS
prevention and counter measures
·
Ministry of Health Decree dated 28.9.1990 – Rules
concerning professional HIV infection protection in public and private
hospitals and health service facilities
·
NIOSH: "Work practices guide for manual
lifting", NIOSH Technical Report n°81-122. U.S., 1981
·
Proceedings of 1st National Seminar
“Occupational hazards in certain least developed tertiary sectors (solid urban
wastes, funeral services, supermarkets)” – SNOP – Milan, 23 May 1994
·
Proceedings of 1st Seminar “Public
Administration and Legislative Decree n°626” – SNOP – Turin, 30 & 31 May
1996
·
Occhipinti, Colombini, Cattaneo, Cervi, Grieco – Work
postures and rachis alterations in funeral service operators - Med. Lav. -
1988, 79: 6
·
American Conference of Governmental Industrial
Hygienists (ACGIH) - Threshold limit values for chemical substances 1995-96
·
International Agency for Research on Cancer (IARC) -
Monographs on the evaluation of carcinogenic risk to humans.
Chapter 8 -
"Environmental hazards"
The environmental hazards of this work phase
relate to the disposal of wastes generated by tasks involving contact with
corpse materials.
Measures implemented for the handling of such wastes
as “special waste materials” have limited and controlled this class of hazard.
Currently such special wastes are adequately sealed
and disposed of by incineration or decontaminated employing autoclaves prior to
disposal.
1. WORK CYCLE PHASE : AUTOPSY
2. INAIL CODE : 93.03
3. HAZARD FACTOR :
4. HAZARD CODE :
5. Num. of EMPLOYEES : 71 SEXTONS and 196 CEMETERIAL STAFF
Chapter 1 -
"Work Phase Description"
Morgue activities involve various operations, some of
which fall within the sphere of forensic medicine, such as postmortem
examination. They are performed by university-employed staff (physicians) and
by municipality-employed staff (nursing-paramedical). Other operations, such as
corpse and assorted materials handling, are performed by morgue staff employed
solely by the Municipality.
The following work phase description refers to those
operations performed by municipality-employed staff generally referred to as
morgue staff, independently of professional qualifications. Tasks performed by
other staff in the dissection room (physicians and nursing-paramedical) are
only referred to incidentally.
The following description refers to the tasks
performed at the time of the initial study (1990) in extremely dangerous
premises characterised by structural shortfalls. More specifically, working
premises were small and confined, insufficiently ventilated, lacking
appropriate separation between the various work areas, equipped with frequently
inefficient refrigeration cells, obsolete machinery, badly positioned wash
basins and water outlets and difficult to clean, cracked floor and wall surfaces,
potential nestling sites for biologic agents.
Structural and equipment innovations and currently
implemented procedures are described in the preventive measures chapter (see
under). Such procedures have also been subsequently radically modified.
Morgue-related activities:
·
Collection, undressing, dressing and diverse corpse
handling operations within and outside the morgue;
·
Wash/cleaning of equipment and premises;
·
Collection and disposal of soiled linen and wastes;
·
Support to postmortem examination.
Morgue staff performs corpse collection from roadside
accident site or from home. The corpse is placed in a bag or if acknowledged as
contaminated, in disposable plastic bags. Depending on weather conditions and
staff availability, 2,3 or 4 operators handle the corpse; generally if corpse
handling involves descending stairs, one operator is placed in front and two at
the rear.
The corpse is manually carried to a trolley equipped
with a steel tray fitted with carrying handles. The trolley is pushed to the vehicle
and transferred to the morgue.
Not all vehicles are equipped with a washbasin and
containers for special wastes (disposable gloves, coveralls, etc.)
At the morgue, the corpse and trolley are pushed to
the observation room. The corpse is either kept under observation for 24
approximately hours or placed directly in the refrigerated cells awaiting the
results of the postmortem examination.
Morgue refrigerated cells cause certain difficulties
to operators as some are too short to store the corpse while others are
positioned at a height that entails the use of a ladder, as adequate lifting
systems are not available.
The absence of conservation systems for the corpses
that may not be stored in the refrigerated cells, has resulted in corpses in
advanced state of decomposition being stored in adjacent rooms. The cell
refrigeration system is obsolete and frequently breaks down. Due to the lack of
regular maintenance, breakdowns are often repaired after considerable time has
elapsed. Frequently various cells are not actively refrigerated thus resulting
in accelerated corpse decomposition.
Depending on operators’ discretion, cells are cleaned
rarely using a flexible water hose.
The overall result of all these shortcomings is that
foul-smelling odours are generated and spread throughout the whole building. In
addition, the conditions favour the growth of numerous Sarcophaga carnaria
larvae and adult flies in the corpse storage rooms, including the refrigerated
cells.
For postmortem examinations, morgue staff transfer the
corpse and the steel tray from the refrigerated cell onto a trolley. The
trolley is then pushed to the examination room where the corpse is manually
placed on the examination table. During the performance of the postmortem,
morgue staff assist the physicians and nursing-paramedical staff in handling
the corpse.
Once the postmortem examination is completed, staff
place the washed corpse onto the carrying tray and, using the trolley transfer
the corpse to the dressing room where it is dressed prior to being placed in
the casket.
Morgue staff are tasked with cleaning the equipment
used during the examination.
The cleaning operations of transport vehicles,
refrigerated cells, observation room and dressing room are performed at
operators’ discretion without following any specific procedure as to the
methods or frequency.
Steel corpse carrying trays are washed outdoors using
running water (delivered by a flexible hose) and detergents. Runoff water
spreads on the yard surface, as there are no specific collection drains. Steel
trays are left to dry in the yard.
For the performance of these duties operators are
issued with waterproof overalls and short rubber gloves. They are not issued
with appropriate footwear (boots/shoes) nor can they adequately protect their
arms from spray and contact with liquid detergents.
Disposable PPEs (gloves, coveralls), employed during
corpse transfer operations involving motor vehicles, are often disposed of as
standard urban wastes due to the unavailability of appropriate special waste
containers.
Disposable PPEs and special wastes generated in the
examination room are collected in plastic bins and subsequently disposed of as
special wastes.
Soiled linen (sheets, hand towels, coveralls) are
retrieved by operators from wooden collection boxes and placed in cloth bags;
soiled linen used on contaminated corpses is placed directly in polythene bags.
The soiled linen is sent to a municipal
decontamination facility and then to a laundry/pressing plant approved by the
National Health Service.
The walls of the postmortem examination room are lined
with tiles up to a height of approximately 2 metres. Windows provide ambient
ventilation.
Furnishings include two steel examination tables
equipped with washbasins and wooden dunnage platforms, metal tables and plastic
bins for special wastes collection. The room has two washbasins with standard
handgrip faucets for operator use; solid soap bars rest on the edge of the
basins. Operators dry their hands using non-disposable, fabric hand towels.
Non-specialised nursing-paramedical staff assist
physicians during the postmortem examinations and preserve sample tissues in
formalin. They also perform cleaning operations of the equipment and premises
after the examination.
Floor surfaces are cleaned using sodium hypochlorite
solution. No complete decontamination of the premises and general furnishings
has ever been performed.
Cleaning of surgical instruments is performed under
running water only in the basin of the examination table. Coveralls worn by
nursing-paramedical staff are used to dry equipment. Electric-powered equipment
(e.g. portable saws) are not adequately cleaned and decontaminated due to the
equipment’s poor insulation.
For autopsies performed on clearly infected corpses,
the surgical instruments are rinsed in water and then placed in a sodium
hypochlorite solution (unspecified concentration and immersion times).
Instruments are then subsequently soaked in 10% formalin solution overnight.
Surgical instruments are never decontaminated due to
non-availability of sterilizer containers notwithstanding the presence of an
autoclave.
Morgue staff work clothes are washed by staff members
themselves at home.
Chapter 2 -
"Equipment and machines"
·
Jute fabric bags for corpses
·
Disposable plastic bags
·
Steel corpse carrying trays (for trolleys and
refrigerated cells)
·
Trolleys for corpse transfer from collection site to
motor vehicle and for all subsequent corpse handling operations within the
morgue
·
Motor vehicles (vans)
·
Refrigerated cells
·
Cotton sheets and towels
·
Surgical instruments (lancets, saws, suture needles,
surgical forceps, etc.)
·
Examination tables equipped with wash basins
·
Autoclave
All equipment is generally old and in an ill state of
repair.
Equipment is not subject to “EC marking” as it does
not fall within the scope of the “Machine Directive”-D.P.R.n°459/1996.
The autoclave, a pressurised vessel, is subject to
ISPESL certification.
Chapter 3 -
"Hazard factor"
Safety hazards due to the
structural characteristics of the indoor/outdoor working environment, job task
organization and characteristics of the equipment/instruments/tools:
·
falling/sliding hazards due to ground irregularities
or the presence of fixed external steps;
·
falling, shock, sliding hazards due to load handling
operations being performed within restricted confines (passageways, stairways
and landings, etc.);
·
falling/sliding hazards due to work performed at night
during corpse recovery in unlit or badly lit conditions (e.g. parks, woods,
etc);
·
falling/sliding/crushing hazards due to slippage of
loads being handled.
·
lesion hazards due to the handling of cutting objects
(e.g. saws, lancets, surgical forceps, etc.);
·
electric shock hazard due to the handling of hand-held
electric powered tools;
·
general accident hazard due to the handling/use of
equipment and tools.
Personal hygiene-environmental hazards due to
the presence of chemical, physical and biologic agents:
·
chemical agent hazard due to the handling of
disinfectants and detergents employed during equipment, work surfaces and PPEs
cleaning operations;
·
chemical agent hazard due to inhalation of
formaldehyde fumes (employed for decontamination of surgical instruments and
for preservation of autopsy sample tissues) generated by the lack of adequate
utilization and dilution procedures, local exhaust systems and appropriate
PPEs;
·
physical agent hazard due to exposure to inclement
weather conditions during the performance of all outdoor activities;
·
biologic agent hazard due to the handling of or
contact with objects or work surfaces soiled by potentially infected soil
and/or biologic fluids coming from the corpses (Tetanus-HBV-HCV-HIV) associated
to potential cutting or piercing lesions;
·
biologic agent hazard due to environmental pollution
generated by autopsies performed on corpses with tubercular mycobacterium
lesions.
Transversal or organizational hazards due to
the nature of the transport and load being handled:
·
ergonomic-related hazards due to odd working postures
and the need to exert noticeable physical effort in case of uneven ground, cramped
indoor work spaces and insufficient number of operators (job task
organization);
·
ergonomic-related hazards due to manual handling of
loads;
·
general health hazards and physical discomfort due to
working environment conditions (foul-smelling breathing air, flies
decomposition gases, etc.);
·
psychological factors related to the item being
handled and to the scant social recognition for the tasks performed.
Safety hazard estimates are furnished in the
chapter dealing with general accident trends. Accident analysis has been
performed employing accident registers relating to the entire sector
during the years from 1985 to 1996.
The personal hygiene-environmental hazard
generated by the handling of disinfectants and detergents may be significant
due to the lack of specific operating procedures and methods relating to
cleaning and decontamination of materials or equipment used. Furthermore, with
respect to formaldehyde use, the ensuing chemical hazard may be particularly
significant due to the characteristics of the substance employed. Formaldehyde
is listed by IARC as class 2A:”probable human carcinogenic agent” and by ACGIH
as class A2:”suspected human carcinogenic agent”. As no dedicated studies have
been performed with respect to the Milan Morgue, it is not possible to assess
the hazard factor.
The physical agent hazard (severe weather
conditions or extreme temperatures) also may be significant due to
organizational shortcomings generated by lack of or unsuitability of protective
clothing.
The entity of these hazards is not readily
quantifiable.
The biologic agent hazard generated by contact
with potentially contaminated materials is high with respect to HBV and HCV due
to the virus’ lengthy survival period even in an external environment and its
high contamination level. The hazard is determined by the non-utilization of
suitable PPEs especially during corpse retrieval and transfer operations due to
possible soiling. The hazard is also present in postmortem examination
operations and is determined by possible cuts, lesions and splashes.
With respect to the HIV hazard, the theoretical
possibility of contamination by fluids issuing from the corpses may not be
excluded. The hazard is highest in the immediate post-death hours and
progressively decreases due to the scarce contagion level and the virus’
reduced survival period in an outdoor environment. With the exception of the
initial post-death hours, the HIV hazard probability is relatively low while
its severity remains high. The hazard is greatest during corpse retrieval
operations.
The Tetanus infection hazard is relatively low as a
result of the extension of mandatory prophylaxis procedures to this class of
operators.
In 1990 and again in 1993, all morgue staff were
subjected to blood test in order to assess exposure to biologic hazard (-
markers HBV (1990-1993) and HCV (1993)-).
The tubercular infection hazard is not readily
quantifiable as no specific data is available in literature and no cases were
detected in the course of our study. The detection of the tubercular
mycobacterium in ambient air is difficult for technical reasons.
Infection exposure hazard data vary and are not easily
found, as there are no specific detection procedures concerning accidents
involving soiling, splash and contact with potentially contaminated organic
materials.
Biologic hazard estimates vary depending on the type
of operation performed (corpse transfer and/or postmortem examination room
activities) and the frequency of such operations (1,156 transfers and 985
autopsies performed annually).
Hazards related to odd working postures and physical
effort because of manual load handling, though not readily quantifiable, remain
relatively high as high workloads requiring physical effort may cause rachis
lesions, acute lumbago and scapulohumeral link lesions.
Overload situations involving operators during this
work cycle phase vary depending on difficulties encountered during transfer
operations (stairs, hard-to-access sites, weight and load grip), job task
organization (number of operators involved) and frequency of operations (1,156
corpse retrieval/morgue transfers, corpse handling within morgue performed
annually).
Acute and chronic spinal column pathologies were
studied using clinical functional rachis composition protocols established by
the EPM research unit (Ergonomia della Postura e del Movimento-
Ergonomics of Posture and Motion), Milan.
The protocols incorporated also various other clinical
tests, prevailingly X-ray tests, for more precise diagnosis definition of
specific cases.
An assessment of the fixed posture hazard to autopsy
operators was not included in the study.
A hazard estimate of the psychologic hardships is
not readily assessable due to the lack of specific studies.
Chapter 4 -
"Expected Injuries"
·
Sprains, contusions, fractures, cuts and
lacerated/contused wounds, crushing injuries due to safety hazards;
·
Eczemas, dermatitis, allergopathies caused by use of
detergents and disinfectants;
·
Eczemas, keratitis, conjunctival and respiratory tract
mucosa irritations generated by use of formaldehyde;
·
Colds caused by working outdoors (physical agents);
·
Parenterally transmitted biologic agent infections
(HBV, HCV, HIV and Tetanus);
·
Airborne biologic agent infections (Tuberculosis);
·
Acute lumbosciaticas, muscular sprains, cervical/dorsal/
lumbosacral spondyloarthropathies (SAPs) caused by handling of heavy loads, odd
and stationary working postures;
·
Psychological hardship
Report of detected injuries
The accident trend is described in the aforementioned
chapter.
No data relating to potential injuries caused by
chemical and physical agents was found.
Blood test results relating to biologic exposure
hazard (HBV and HCV markers) performed in the period 1990-1993 show that 56.7%
of morgue staff tested positive to at least one marker. Consequently, this
worker group is exposed to a higher biologic hazard than other operators in
this sector.
Studies performed on other worker groups not
particularly exposed to biologic hazard (e.g. municipal police officers)
produced positive results in 20% of cases.
No new HBV cases were detected between the initial
health controls, performed in 1990, and the subsequent ones performed in 1993.
All operators were subjected to hepatitis B vaccinations.
With respect to injuries deriving from handling of
heavy loads, fixed and/or odd work postures and high physical effort, no
further data is available as the worker group has not been subjected to
specific health studies.
Chapter 5 -
"Preventive Measures"
The principal preventive measure implemented has been
the complete refurbishment of the morgue.
The measure has radically affected the architectural
structure and involved building a new postmortem examination room, the creation
of new work spaces, improved redistribution of interior space involving a net
separation between “clean” and “dirty” work areas, installation of appropriate
air conditioning and electric power distribution system conforming to current
safety standards.
All equipment and fittings were replaced. New
installations included: refrigerated cells, examination room furnishings,
medical apparatus, surgical instruments. A new automated corpse handling system
and steel carrying tray washing/decontamination system were installed. New work
procedures were implemented relating to washing/decontamination of instruments
and premises, formaldehyde handling, PPE cleaning, collection and disposal of
special wastes, etc.
Measures implemented have resulted in an improvement
of morgue staff indoor working conditions and consequent significant hazard
reduction relating to safety, personal health/environment (chemical and
biologic agents) and transverse/organization (manual load handling).
Nonetheless the above hazards are still present with
respect to corpse retrieval and certain specific activities performed within
the examination room.
The new air conditioning and ventilation systems have
brought about a significant improvement of working environment conditions
relating to airborne pollutants (fumes, odour, etc.) and microclimate.
The ventilation system ensures 6 environment air
volume replacements per hour for all morgue rooms and 10-12 replacements/hour
in the examination room. No environment air replacements are envisaged for all
corpse-stationing areas, as air is exhausted through absolute filters fitted
with active carbon elements, prior to being dumped to the outside environment.
Notwithstanding the above measures, foul odours in the
examination room persist when activity affects corpses in an advanced state of
decomposition. A requirement has been established to envisage additional
ventilation for these specific working conditions.
All refrigerated cells have been located in a separate
area that excludes the presence of staff. All cells are serviced by an
automated handling system that allows corpse handling.
The installation of the automated system has
eliminated manual load handling hazards within morgue premises and has
significantly reduced instances involving operator contact with corpses, thus
also reducing the biologic contamination hazard.
The automated system covers almost all morgue
operations (in-coming/out-going corpse handling, corpse weighing, recording of
interventions performed and autopsies, etc.).
The system includes:
·
Automated warehousing trolley for corpse
retrieval/storage from refrigerated cells;
·
Magnetic band scanner and load station for automatic
traversing trolleys;
·
automatic traversing trolley including automatic load
lifting device;
·
control stations located in the examination and corpse
observation rooms;
·
corpse weighing station;
·
corpse steel carrying tray end station;
·
steel carrying tray
wash/decontamination/drying/storage/distribution system (automated tray
handling system);
·
management/control and data recording computer.
The measures implemented have brought about a
reduction of hazards deriving from the previous physical working premises but
have generated a series of new, potential safety hazards.
New safety hazards include operators being potentially
struck by the automated traversing trolley. In more general terms, hazards
relate to all interactions between operators and automated power-assisted
handling components, electrical shock hazards generated by electrical equipment
and during cleaning operations involving internal/external surfaces of
automated systems.
The following are the hazard prevention measures, some
already partially implemented during equipment installation. The monitoring
authority prescribed the following measures.
·
Fixed protection fences and interlocked safety devices
blocking operator access to the refrigerated cell area during automated corpse
handling trolley traversing operations;
·
Fixed protection fences shielding operator control
console near the corpse weighing station;
·
Photoelectric cells (“electric eye”) blocking the
traversing trolley in case of operator access to the narrow passageway
separating the refrigerated cells and the postmortem examination room;
·
Visual/acoustic alarm signalling traversing trolley
operations;
·
Automatic traversing trolley blocking device in case
of trolley striking an obstacle;
·
Protection of the traversing trolley’s electrical
circuits to allow cleaning and decontamination operations;
·
Horizontal surface markings indicating traversing
trolley operational area in the examination room and nearby premises;
·
Automated closed-circuit washing system for steel
carrying trays;
·
Electrical system within refrigerated cells to IP65
and IP67 safety standard (lighting fixtures and cell hatch opening switch gear)
to prevent electric shock hazard during interior cell surface cleaning
operations;
·
Water drainage of internal surfaces for refrigerated
cell-washing operations.
In relation to work procedures, operators have been
issued with disposable plastic corpse bags with three carrying handles for
easier handling and specific PPEs (disposable Tyvek coveralls, non-slip
footwear, rubber gloves, face masks, etc.).
Specific information and training programmes relating
to proper equipment/PPE use have been implemented. All corpses are considered
as being potentially contaminated. Consequently specific operating procedures
have been issued to operators covering corpse handling and soiled equipment
use.
Operators have been issued with specific instructions
with respect to motor vehicle and non-disposable PPE cleaning/decontamination
procedures. A requirement was issued relating to a dedicated area equipped with
water outlet and soaking tanks for rubber footwear cleaning operations.
The steel corpse carrying tray
cleaning/decontamination procedure has been completely automated (see above),
thus eliminating operator exposure to biologic agent and manual load handling
hazards.
Cleaning and decontamination of refrigerated cells and
morgue premises have been subjected to outsourcing agreements. Firms have been
issued with specific instructions with respect to frequency and operating
procedures. Cleaning/decontamination procedures are still performed manually.
Refrigerated cell cleaning/decontamination is
performed by operators accessing the area from passageways located at the rear
of the cells. Operator access entails blockage of the traversing trolley for
the duration of the cleaning/decontamination operations.
The operator employs a pressure nozzle dispensing
automatically pre-mixed water/disinfectant to clean and decontaminate the
refrigerated cell’s internal surfaces and carrying tray support devices.
Cleaning fluids are collected and drained by means of dedicated plumbing to a
processing system prior to being discharged to the local sewer system.
A microbiologic study was performed in order to assess
the sanitation procedure efficiency. Study results have indicated a
satisfactory decontamination level even though the need for further
enhancements was detected, especially with respect to certain specific areas
(e.g. refrigerated cells, steel carrying trays).
Work clothes are cleaned by centralized laundry plants
at the Administration’s expense.
With respect to work procedures concerning postmortem
examination activities, instructions have been issued to treat all organic
fluids and tissues as potentially contaminated materials. Furthermore, in
conformity with Ministry of Health guidelines, all operators shall implement
and abide by the following mandatory specific work procedures:
·
Smoking, drinking and eating are forbidden within the
confines of the postmortem examination room;
·
Operators with open or secreting lesions shall not
take part in postmortem examinations;
·
Observers shall wear protective clothing and shall be
confined to the minimum contamination area;
·
All operators (including morgue staff performing
corpse preparation activities) performing any task within the examination room
shall at all times wear the following PPEs: white coat, water-proof apron,
gloves, face mask, protective eyewear/face shield;
·
All operators performing the autopsy shall wear two
pairs of intact autopsy gloves. Should gloves rupture, become soiled or be
punctured (including cases where no laceration or abrasion of wearer’s skin
tissue occurs), they shall immediately be removed and operator shall carefully
wash hands prior to donning new gloves;
·
Steel mesh gloves shall be worn during all operations
involving rib cage removal, vertebrae removal, skullcap removal and while
employing bone cutting implements;
·
Exposed and jagged bone extremities shall be
identified and covered using napkins or bone adhesive;
·
Bone cutting operations shall preferably be performed
using hand operated saws or bone milling cutters instead of electric powered
tools in order to minimize the generation of airborne particles;
·
Only those parts of the body (cranium, rib cage,
abdomen, upper/lower limbs, etc) that are necessary to answer queries shall be
opened; organs/tissues required to answer queries shall be removed and
sectioned. The sectioning area shall be located close to the postmortem table
so as to limit unnecessary transfers and subsequent soiling of surfaces. Brain
tissue and spinal marrow examinations are not performed on a routine basis.
Such examinations shall be performed solely pursuant to a specific request;
·
Organs shall be sectioned following accepted procedures
involving fixation of organs prior to performing further investigations. In
cases of suspected pulmonary infections, lungs shall be insufflated using
formaldehyde;
·
Organs shall be handled with care and shall not be
subjected to high pressure water rinsing in order to minimize the generation of
aerosols. The organ washing area shall be located close to the examination
table. It shall be easily accessible, adequately sized and equipped with
suitable water outlets;
·
After use, all disposable syringes, needles, lancets
and other sharp instruments shall immediately be disposed of in specific
hardcase, broad aperture containers employed exclusively for this type of
laboratory wastes;
·
All wastes generated in the examination room shall be
collected and disposed of in specific containers for contaminated materials;
·
Prior to beginning each autopsy, a 1:10 solution of
sodium hypochlorite shall be specifically prepared and placed in a readily
accessible position. The solution shall be used to disinfect potentially
contaminated objects and surfaces during the performance of the autopsy.
Residual solution shall not be stored and shall be suitably disposed of;
·
Upon termination of each autopsy session, all work and
floor surfaces and all contaminated surfaces shall be disinfected using a
sodium hypochlorite solution and adequately rinsed;
·
After use, all surgical instruments shall be soaked in
a disinfectant solution. Soaking times shall be set according to the product
manufacturer’s specific operating instructions. Subsequently instruments shall
be washed manually using brushes and detergents. Instruments shall be dried
using disposable towels employed solely for this task;
·
All electric powered implements (saws, etc.) that
require soaking in disinfectant solution for decontamination shall be equipped
with appropriate electrical insulation;
·
Upon completion of the autopsy, all operators shall
wash their hands and remove their protective clothing prior to leaving the
examination room;
·
Protective clothing and linen items shall be placed
directly in appropriate (polythene) soiled item containers for decontamination
and washing.
Operators at all professional qualification levels,
involved in this work phase (morgue activities), have been issued with the
following specific instructions with respect to the procedures to be
implemented in cases involving biologic agent exposure hazard (defined as
“accident involving contamination hazard”):
·
Due care shall be exercised in preventing accidental
cuts or lacerations caused by potentially contaminated instruments and/or
exposed and jagged bone extremities, spillage of blood and/or organic fluids;
·
An operator that suffers cuts, pricks, soiling or
whose skin or mucous tissue is splashed shall immediately interrupt his/her
autopsy-related activities;
·
Any lesion including needle pricks shall be allowed to
bleed freely and shall be subsequently washed, disinfected and medicated. Any
accidental contamination of mucous tissue (eyes and oral cavity) shall be
immediately washed liberally using running water;
·
All accidents (lesions, splashes, soiling) shall
immediately be reported to supervisors;
·
Operators accidentally exposed to blood or other
biologic materials (accident involving contamination hazard) shall be subjected
to initial tests (e.g. vaccination control, passive immunization, hepatitis B
and C markers) and HIV follow-up. Furthermore, pursuant to current regulations,
a proposal for chemoprofilaxis using antiretroviral drugs shall be lodged.
A Hepatitis B, Tetanus and Tuberculosis profilaxis
vaccination campaign has been implemented.
With respect to formalin use, instructions have been
issued for the elimination of dilution and transfer operations (to be performed
only by qualified personnel using exhaust hoods) and use of suitably prepared tissue
storage containers. Instructions have also been issued relating to the
replacement of formalin with less toxic products.
Requirements have been put in place relating to the
collection of wastes originating from processes involving contact with corpse
materials (materials and disposable PPEs). Such materials shall not be
considered as standard urban waste but as special waste products and shall be
disposed of in appropriate “special wastes containers”. Such containers shall
be stored in suitable, ventilated rooms. Room floors and walls shall be lined
with waterproof, readily washable materials.
During the execution of the study, recommendations
have been made relating to the need for further actions in job task
organization, making specific reference to the number of operators required to
perform corpse retrieval operations. Instruction/training programmes relating
to load lifting methods are essential but have not as yet been implemented.
Chapter 6 -
"Outsourcing"
Operations involving corpse retrieval and transfer to
the morgue for autopsy are performed solely by morgue staff employed by the
Municipality of Milan.
Cleaning and decontamination of morgue premises has
been subjected to an outsourcing agreement.
Autopsy activities are performed by operators employed
by the University and, currently, by ASL (Azienda Sanitaria Locale-local
Ministry of Health agency). Previously some operators were employed by the
Municipality.
Chapter 7 -
"Legislative References"
The hereunder-listed legislative and bibliographic
references relate to all the phases of the entire working cycle.
·
D.P.R.n°547/1955 – Workplace Accident Prevention Rules
·
D.Lgs.n°626/1994 and subsequent amendments –
Implementation of Directives n°89/391/EEC, n°89/654/EEC, n°89/655/EEC,
n°89/656/EEC, n°90/269/EEC, n°90/270/EEC, n°90/394/EEC and n°90/679/EEC
relating to the enhancement of worker safety and health
·
D.Lgs.n°475/1992 – Implementation of Council Directive
89/686/EEC dated 21/12/1989 relating to harmonization of member states’
legislation concerning personal protection equipment
·
D.P.R.n°459/1996 – Implementation regulations for
Directives n°89/392/EEC, n°91/368/EEC, n°93/44/EEC and n°93/68/EEC relating to
harmonization of member states’ legislation concerning Machinery
·
D.Lgs.n°494/1996 – Implementation of Directive
n°92/57/EEC relating to minimum safety and health requirements for temporary or
mobile construction sites
·
Municipal building and health regulations
·
D.P.R.n°285/1990 – Approval of Mortuary police
Regulations
·
Municipal Mortuary police Regulations
·
Law n°292 dated 05/03/1963 (Mandatory anti-tetanus
vaccination)
·
D.M. 26/04/1990 and D.M. 04/10/1991 (Identification of
risk groups for Hepatitis B virus vaccination)
·
D.P.R.n°203/1988 – Implementation of Directives
n°80/779/EEC, n°82/884/EEC, n°84/360/EEC and 85/203/EEC concerning air quality
regulations relating to specific pollution and polluting agents produced by
manufacturing facilities pursuant to Article 15, Law n°183 dated 16/04/1987
·
D.Lgs.n°22/1997 and subsequent amendments –
Implementation of Directives n°91/156/EEC concerning waste disposal,
n°91/689/EEC concerning hazardous wastes and n°94/62/EEC concerning packaging
and packaging wastes
·
Ministry of Health Circular issued 20/06/1983 n°57:
Formaldehyde Uses: hazards deriving from formaldehyde use.
·
D.Lgs.n°626/1994 Legislative Decree Application
Guidelines issued by Autonomous Regions and Provinces Coordination Agency,
October 1996
·
Ministry of Health – National AIDS Commission –
Guidelines to health operators for HIV infection control, Rome 06/09/1989
·
Law n°135 dated 05/06/1990 – Programme of urgent AIDS
prevention and counter measures
·
Ministry of Health Decree dated 28.9.1990 – Rules
concerning professional HIV infection protection in public and private
hospitals and health service facilities
·
NIOSH: "Work practices guide for manual
lifting", NIOSH Technical Report n°81-122. U.S., 1981
·
Proceedings of 1st National Seminar
“Occupational hazards in certain least developed tertiary sectors (solid urban
wastes, funeral services, supermarkets)” – SNOP – Milan, 23 May 1994
·
Proceedings of 1st Seminar “Public
Administration and Legislative Decree n°626” – SNOP – Turin, 30 & 31 May
1996
·
Occhipinti, Colombini, Cattaneo, Cervi, Grieco – Work
postures and rachis alterations in funeral service operators - Med. Lav. -
1988, 79: 6
·
American Conference of Governmental Industrial
Hygienists (ACGIH) - Threshold limit values for chemical substances 1995-96.
·
International Agency for Research on Cancer (IARC) -
Monographs on the evaluation of carcinogenic risk to humans
Chapter 8 -
"Environmental hazards"
Environmental hazards caused by wastes generated by
activities involving contact with corpse materials and disposable PPEs have
been tackled by disposal of such wastes as special waste. Wastes are collected
in dedicated containers, sealed and incinerated or decontaminated by autoclave
prior to disposal.
All sewage generated within the autopsy room and by
cleaning operations is subjected to decontamination prior to being sent to the
sewer system.
Air conditioning exhaust air is decontaminated using
absolute filters and active carbon filter elements are employed to remove
residuals odours.
1. WORK CYCLE PHASE : INTERMENT BURIAL
2. INAIL CODE : 93.03
3. HAZARD FACTOR :
4. HAZARD CODE :
5. Num. of EMPLOYEES : 196 CEMETERIAL STAFF
Chapter 1 -
"Work phase description"
Interment burial involves burial of the casket at a
depth of 2 metres according to Mortuary Police Regulations D.P.R.n°285/90. This
work phase includes a number of tasks that may be grouped in the following
sub-phases:
·
Burial site preparation and excavation;
·
Casket transfer to burial site;
·
Preparation of casket for burial;
·
Burial;
·
Grave closure;
·
Tool cleaning;
·
PPE disposal.
Ground preparation involves excavating a 1.70 metre
deep, 2.50 metre wide trench for the length of the burial plot. The prescribed
2 meter burial depth is obtained by the addition of 30 centimetres of topsoil.
Generally the trench is dug employing a mechanical excavator. Cemeterial staff inside the trench manually finish off the excavation using shovels and picks.
Trench walls are supported using prefabricated wooden shoring elements weighing between 80 and 100 kilograms. Elements are positioned using the excavator boom. Iron bars and tie rods are used to hold shoring elements in place.
When performing burials according to non-Christian rites (e.g. Muslim) in smaller cemeteries or when single graves are being prepared, excavation operations are performed manually using picks and shovels. In such cases the wooden elements are not employed to shore up the grave sides.
Casket transfer operations to the burial plot have been previously described in the “corpse transfer” phase.
Prior to the casket being lowered in the grave, the zinc coffin employed for transporting contaminated corpses or corpses coming from other municipalities, is cut open in order to facilitate decomposition. Mortuary police regulations prohibit burial of zinc coffins as they inhibit the decomposition process.
After having removed the wooden casket lid-fastening
screws employing a standard screwdriver, the zinc coffin is punctured laterally
using a hammer and punch. The puncture hole is enlarged employing a hand held
sickle and the zinc covering is partially removed.
Decomposition gases and/or biologic liquids may be
sprayed when the zinc coffin is punctured.
The casket is positioned on a wooden plank placed
across the trench and suitably long ropes are employed to manually lower the
casket in the grave.
Casket lowering is performed by four operators
standing on two planks positioned 1 meter apart across the grave.
Grave closure is performed in two ways depending on
whether it affects a single grave or a trench. In both cases lowering planks
are removed prior to closure. Single graves are closed manually employing
shovels.
Trench grave closure involves the removal of the
prefab wooden shoring elements and the filling of the grave employing the
mechanical excavator. Work is manually finished off employing shovels.
Work tools are cleaned manually using the various
water outlets distributed throughout the cemetery without specific equipment or
detailed instructions relating to cleaning and decontamination procedures to be
implemented.
Disposable PPEs are disposed of in normal household
waste collection hoppers.
Operators wash work clothes at their expense at home.
Chapter 2 -
"Equipment and machinery"
Equipment:
·
Prefabricated wooden shoring elements and fixing rods;
·
Sundry metal tie rods and bars;
·
Portable step ladders for grave access;
·
Wooden planks;
·
Gangplanks;
·
Casket lowering ropes;
·
Trolleys.
Hand-held tools:
·
Shovels;
·
Picks;
·
Screwdrivers;
·
Hammers;
·
Punches
·
Hand-held sickles.
Machinery:
·
Mechanical excavators;
·
Funeral vehicle.
Equipment, hand tools and machinery are not subject to
mandatory EC markings, as they do not fall within the definition of “machines”
as envisaged by current legislation. Likewise mechanical excavators are
exempted as they were purchased prior to the coming into force of
D.P.R.n°459/94.
All equipment employed, excepting the prefabricated
wooden shoring elements, was not specifically procured for this particular
application but was adapted and modified on the spot. Consequently the
equipment, in addition to being in an unsatisfactory state of repair, is often
unsuited to the specific type of work being performed. Specifically, the height
of the portable ladders does not reach the lip of the grave excavation and the
gangplanks are not fitted with accidental fall restraint devices.
Chapter 3 -
"Hazard factor"
The safety hazards are due to the physical
features of work sites, work organization, equipment/hand-tools and machinery
employed:
·
Falling hazard due to the uneven ground of the burial
sites;
·
Hazards deriving from the use of mechanical excavators
(e.g. excavator overturning/tipping over);
·
Operators exposed to shock/violent contact hazard
within excavator operating radius;
·
Falling hazard into the grave trench excavation (fall
from a height of approximately 1.70 metres;
·
Potential trench cave-in hazard during work performed
inside the grave;
·
Violent contact/crushing hazard caused by slippage of
wooden shoring element during positioning operations;
·
Falling, violent contact, crushing hazard during
manual handling of heavy loads under unstable operator equilibrium conditions,
especially during casket lowering operations;
·
Falling hazard due to narrow width of gangplanks
(width <60 centimetres);
·
Cutting lesion hazards caused by handling of sharp
edged materials (jagged edges of zinc coffin, cutting edge of sickle);
·
General accident hazard due to handling of work tools.
Personal hygiene-environmental hazards due to
the presence of chemical, physical and biologic agents:
·
No specific chemical agent hazards have been
identified in this work phase as no chemical substances or products are
employed. A general dust inhalation hazard has been acknowledged during
excavation and soil transfer operations;
·
Physical agent hazards are due to the noise generated
by the mechanical excavator;
·
Physical agent hazards due to exposure to extreme
weather conditions involving all operations performed outdoors;
·
biologic agent hazard due to the handling of or
contact with items or work surfaces soiled by potentially infected earth and/or
biologic fluids coming from the corpses (Tetanus-HBV-HCV-HIV) associated to
potential cutting or piercing lesions (zinc coffin opening work sub-phase);
Transversal or organizational hazards due to
the nature of the work being performed and the task organization:
·
ergonomic-related hazards due to manual handling of
loads up to 200 kilograms;
·
ergonomic-related hazards due to odd working postures
and the need to exert noticeable physical effort during casket lowering and
gangplank positioning operations (weights handled range from 50 to 80
kilograms);
·
general health hazards and physical discomfort due to
working environment conditions (foul-smelling breathing air, decomposition
gases, fluids filtering from caskets);
·
psychological factors related to the item being
handled and to the scant social recognition for the tasks performed.
A safety hazard estimate has been furnished in
the general accident trend chapter. A specific accident hazard assessment has
not been performed in this work phase as operators, generally grouped as
“cemetery staff”, are directly involved in other phases of the work cycle
(interment burial, exhumation, niche exhumation, cremation).
Accident analysis has been performed employing
accident registers relating to the entire sector during the years from
1985 to 1996.
Personal hygiene-environmental hazard estimates
due to noise generated by the mechanical excavator are directly proportional to
the time during which the machinery is in use.
During this work sub-phase operators are generally
exposed to noise levels ranging from 80 to 85 dB(A) leq. In the majority of
cases, excavator use is limited to only a part of the entire work shift, hence
daily operator noise exposure is lower than the 80 dB(A) reference threshold.
As a conservative estimate, even allowing for daily work shifts involving
prolonged use of the mechanical excavator, should result in operator exposure
levels not exceeding 85 dB(A).
The physical agent hazard (severe weather
conditions or extreme temperatures) also may be significant due to
organizational shortcomings generated by lack of or unsuitability of protective
clothing.
The entity of these hazards is not readily
quantifiable.
The biologic agent hazard due to the handling
of or contact with HBV-HCV potentially infected biologic materials is high due
to the virus’ protracted environmental survivability and contamination
capability. The hazard is related to inadequate PPE use and is particularly
high in cases involving the handling of soiled or leaking caskets. The hazard
is also present during coffin cutting operations leading to cutting lesions and
operators being sprayed with decomposition gas and biologic liquids.
With respect to the HIV hazard, the theoretical
possibility of contamination by fluids issuing from the corpses may not be
excluded. The hazard is particularly low due to the scarce contagion level and
the virus’ reduced environmental survivability. The HIV hazard probability is
relatively low while its severity remains high.
The Tetanus infection hazard is relatively low as a
result of the extension of mandatory prophylaxis procedures to this class of
operators.
In 1990 and again in 1993, all cemetery staff were
subjected to blood test in order to assess exposure to biologic hazard (- markers
HBV (1990-1993) and HCV (1993)-).
Hazards related to odd working postures and physical
effort because of manual load handling, though not readily quantifiable, remain
relatively high as high workloads requiring physical effort may cause rachis
lesions, acute lumbago and scapulohumeral link lesions.
An analysis of working conditions identified numerous
instances of high mechanical overload of the entire locomotor apparatus and
especially of the lumbar rachis. Axial compression levels are frequently higher
than the first safeguard threshold (350 kgs) and occasionally exceed the
maximum tolerable threshold level (650 kgs).
Overload situations for operators performing burial
tasks depend on job task organization and on burial frequency.
Total number of burials of this type performed in
cemeteries under Milan Municipality control range from 6,500 to 7,000.
Acute and chronic spinal column pathologies were
studied using clinical functional rachis composition protocols established by
the EPM research unit (Ergonomia della Postura e del Movimento-
Ergonomics of Posture and Motion), Milan.
The protocols incorporated also various other clinical
tests, prevailingly X-ray tests, for more precise diagnosis definition of
specific cases.
A hazard estimate of the psychologic hardships
is not readily assessable due to the lack of specific studies.
Chapter 4 -
"Expected Injuries"
·
Sprains, contusions, fractures, puncture/cuts and
lacerated/contused wounds, crushing injuries, traumas caused by falls in
excavated trenches/graves, lesions caused by foreign objects, due to safety
hazards;
·
Lesions caused by foreign objects due to the
generalised presence of dust;
·
hypoacusia and extra-hearing effects caused by
exposure to noise;
·
Colds caused by working outdoors (exposure to physical
agents/weather conditions);
·
Parenterally transmitted biologic agent infections
(HBV, HCV, probable HIV and Tetanus);
·
Acute lumbosciaticas, muscular sprains,
cervical/dorsal/ lumbosacral spondyloarthropathies (SAPs) caused by handling of
heavy loads and to odd working postures;
·
Psychological hardship.
Report of detected injuries
The accident trend has been described in the general
chapter dealing with all accidents of the sector.
Data on injuries caused by
physical agents are not available.
Blood test results relating to biologic exposure
hazard (HBV and HCV markers) performed in the period 1990-1993 show that 46% of
cemetery staff tested positive to at least one marker. Studies performed on
other worker groups not particularly exposed to biologic hazard (e.g. municipal
police officers) produced positive results in 20% of cases.
During the time period 1990-1993, 2 new HBV infection
cases were recorded for cemetery staff (out of 126 non-immune operators). Two
cases, which had tested negative to all markers in 1990, tested positive in
1993 to HBsAb and/or HBeAb and/or HBcAb markers.
Workers were subsequently subjected to hepatitis B
vaccinations.
Data refer to the entire cemetery staff group and
relate to all work phases performed (interment burial, niche burial,
exhumation, niche exhumation, cremation). Data aggregates may not be broken
down for each work phase for the previously mentioned reasons.
The following data results from the medical tests to
which cemeterial staff were subjected to by CEMOC (Centro di Medicina
Occupazionale e di Comunità-Centre for occupational and community medicine)
in 1990-1991 (280 operators) and 1992-1993 (257 operators), with respect to
injuries deriving from the handling of heavy loads, odd working postures and
high physical exertion.
Data generated by the two studies indicate a
particularly high percentage of individuals affected by acute lumbago. The
number of workers complaining of substantial episodes of acute lumbago in the
course of their working life totals 20%. Acute lumbago episodes that occurred
in the year prior to the visit totalled 8.5%.
The above data shows a prevalence of cervical SAP
(12.9%), dorsal SAP (11%) and lumbosacral SAP (25%). Data thus indicates that
cemeterial staff show a tendency to lumbosacral rachis complaints significantly
higher than workers not exposed to manual load handling hazards. Cervical and
dorsal rachis complaints are not particularly significant in this worker group.
A comparison of the above data with those relating to
sextons (transport phase) shows that acute lumbago hazards are significantly
higher for cemetery staff (intense, not protracted physical effort) whereas
cervical, dorsal and lumbosacral rachis pathology hazards, which are directly
related to the frequency of operations, are greater for operators performing
transfer tasks (sextons).
Chapter 5 -
"Preventive Measures"
The main preventive measure is the mechanization of
the entire burial phase in order to eliminate or reduce accident and ergonomic
hazards (odd work postures and manual load handling).
The measure has not as yet been implemented as various
proposals are being assessed. Issues affecting possible solutions relate to the
physical features of current cemetery layouts (manoeuvring spaces, access
pathways, burial site dimensions).
Layout design of existing and future cemeteries shall
need to address issues such as motor vehicle and other equipment working
spaces.
Hazard reduction measures so far implemented are only
partial and still experimental. Casket lowering operations are still being
performed manually either using gangplanks or by direct grave access.
With respect to the excavation phase, the principal
measure implemented has been the elimination of the prefabricated wooden
shoring elements thus reducing hazards related to their handling and
positioning. Trench excavation is no longer realised with vertical sides but
with the “natural slope” method.
Further measures implemented concerned job task
organization (excavation method) and fencing off of the mechanical excavator
operating radius, banning operators from stationing in the grave itself as well
as in the immediate burial site vicinity.
Operators have been issued with suitable PPEs
(non-slip footwear with steel toe-cap reinforcement, leather hand gloves, protective
helmets). An information and training programme has been implemented for
operators relating to proper PPE use and new work procedures.
Zinc coffins are cut open prior to burial of the wood
casket.
Cut and puncture lesion hazards have been reduced by the
use of suitable mechanical equipment (hand-held, power-operated millers or
reciprocating saws) replacing the hand-held sickle.
Biologic agent hazards have been tackled by issuing
operators with specific PPEs (disposable waterproof overalls, non-slip footwear
with reinforced steel toe-cap, hand gloves, protective eyewear, face mask and
visor) as well as implementing appropriate information and training programmes.
As for the corpse transport phase, all exhumed corpses are considered
potentially contaminated. Consequently instructions aimed at implementing
specific precautions and procedures have been issued.
Biologic agent hazards occurring during the coffin
opening phase may be eliminated by employing external zinc coffins to enclose
the wooden caskets thus avoiding the possibility of operators coming into
direct contact with the corpses. Adopting this measure entails lifting the
wooden casket from the zinc coffin and thus the elimination of hazards deriving
from possible biologic fluid splashes, cutting or puncture lesions during
coffin opening and handling of sharp edged tools and objects.
The issue of union regulations banning the use of zinc
coffins enclosed within the wooden caskets and permitting the use of such
coffins only in those cases envisaged by mortuary police regulations, hence
avoiding their indiscriminate use, has significantly reduced biologic agent
hazards.
Furthermore a Hepatitis B and Tetanus vaccination
programme has also been implemented.
A mandatory, dedicated, suitably equipped area has
been established for all activities relating to cleaning and decontamination of
equipment and re-usable PPEs. The area is fitted with equipment and tool
cleaning/soaking decontamination tanks and washbasins, foot or hand
lever-operated water faucets, liquid soap and disposable hand towel dispensers.
Specific tool/equipment cleaning and decontamination procedures have been
issued.
Work clothes are cleaned/washed at the
administration’s expense in specific centralized laundry services.
Instructions have been issued with respect to the
collection of disposable PPEs in specific “special wastes containers” to be
stored in suitable premises with waterproof, easy to wash wall/floor lining
materials.
The single preventive measure apt to furnish a
solution to the manual load handling issue is the total mechanisation of the
entire phase. The sole measure so far implemented is the declaration of
temporary or permanent operator non-suitability in cases of certified rachis
pathologies (40 cases resulting from the 1990 examinations, i.e. 14.5% of
operators; an additional 47 resulting from the 1992 examinations, i.e. 17.7% of
operators). The data set refers to the entire cemeterial staff worker group,
which also performs other tasks in the work cycle (interment and niche burials
and exhumations, cremations).
Chapter 6 -
"Outsourcing"
In the majority of cases these tasks are currently
performed by cemeterial staff employed by the Municipality.
In certain cemeteries some of these tasks (i.e. burial
site preparation) are subject to outsourcing agreements.
Outsourcing agreements are being considered covering
all phases of this work cycle.
Chapter 7 -
"Legislative References”
The hereunder-listed legislative and bibliographic
references relate to all the phases of the entire working cycle.
·
D.P.R.n°547/1955 – Workplace Accident Prevention Rules
·
D.Lgs.n°626/1994 and subsequent amendments –
Implementation of Directives n°89/391/EEC, n°89/654/EEC, n°89/655/EEC,
n°89/656/EEC, n°90/269/EEC, n°90/270/EEC, n°90/394/EEC and n°90/679/EEC
relating to the enhancement of worker safety and health
·
D.Lgs.n°475/1992 – Implementation of Council Directive
89/686/EEC dated 21/12/1989 relating to harmonization of member states’
legislation concerning personal protection equipment
·
D.P.R.n°459/1996 – Implementation regulations for
Directives n°89/392/EEC, n°91/368/EEC, n°93/44/EEC and n°93/68/EEC relating to
harmonization of member states’ legislation concerning Machinery
·
D.Lgs.n°494/1996 – Implementation of Directive
n°92/57/EEC relating to minimum safety and health requirements for temporary or
mobile construction sites
·
Municipal building and health regulations
·
D.P.R.n°285/1990 – Approval of Mortuary Police
Regulations
·
Municipal Mortuary police Regulations
·
Law n°292 dated 05/03/1963 (Mandatory anti-tetanus
vaccination)
·
D.M. 26/04/1990 and D.M. 04/10/1991 (Identification of
risk groups for Hepatitis B virus vaccination)
·
D.P.R.n°203/1988 – Implementation of Directives
n°80/779/EEC, n°82/884/EEC, n°84/360/EEC and 85/203/EEC concerning air quality
regulations relating to specific pollution and polluting agents produced by
manufacturing facilities pursuant to Article 15, Law n°183 dated 16/04/1987
·
D.Lgs.n°22/1997 and subsequent amendments –
Implementation of Directives n°91/156/EEC concerning waste disposal,
n°91/689/EEC concerning hazardous wastes and n°94/62/EEC concerning packaging
and packaging wastes
·
Ministry of Health Circular issued 20/06/1983 n°57:
Formaldehyde Uses: hazards deriving from formaldehyde use.
·
D.Lgs.n°626/1994 Legislative Decree Application
Guidelines issued by Autonomous Regions and Provinces Coordination Agency,
October 1996
·
Ministry of Health – National AIDS Commission –
Guidelines to health operators for HIV infection control, Rome 06/09/1989
·
Law n°135 dated 05/06/1990 – Programme of urgent AIDS
prevention and counter measures
·
Ministry of Health Decree dated 28.9.1990 – Rules
concerning professional HIV infection protection in public and private
hospitals and health service facilities
·
NIOSH: "Work practices guide for manual
lifting", NIOSH Technical Report n°81-122. U.S., 1981
·
Proceedings of 1st National Seminar
“Occupational hazards in certain least developed tertiary sectors (solid urban
wastes, funeral services, supermarkets)” – SNOP – Milan, 23 May 1994
·
Proceedings of 1st Seminar “Public
Administration and Legislative Decree n°626” – SNOP – Turin, 30 & 31 May
1996
·
Occhipinti, Colombini, Cattaneo, Cervi, Grieco – Work
postures and rachis alterations in funeral service operators - Med. Lav. -
1988, 79: 6
·
American Conference of Governmental Industrial
Hygienists (ACGIH) - Threshold limit values for chemical substances 1995-96
·
International Agency for Research on Cancer (IARC) -
Monographs on the evaluation of carcinogenic risk to humans
Chapter 8 -
"Environmental hazards"
The sound pollution hazard that may result from the
use of mechanical excavators is negligible as cemeteries are generally located
in areas away from residential and industrial areas.
The environmental hazard resulting from the presence
of wastes generated by tasks involving contact with corpse materials (i.e.
disposable PPEs) has been tackled by treating such wastes as special wastes.
Said wastes are collected in suitable containers, sealed and incinerated or,
alternatively, subjected to a decontamination process involving autoclaves
prior to their final disposal.
Environmental hazards generated by the dispersion of
zinc metal coffins have been tackled by the previously outlined usage
constraints and by issuing collection, cleaning and disposal procedures.
To that end, a paved and suitably drained area has
been created for coffin cleaning and temporary storage. Approved contractors
subsequently collect zinc coffins.
1. WORK CYCLE PHASE : NICHE BURIAL
2. INAIL CODE : 93.03
3. HAZARD FACTOR :
4. HAZARD CODE :
5. Num. of EMPLOYEES : 196 CEMETERIAL STAFF
Chapter 1 -
"Work Phase Description"
The niche burial procedure involves placing the wood
casket/zinc coffin in individual concrete niches.
The niches may be located in a Columbarium, a
multi storey aboveground structure or in below ground multi level vault
structures called Tombini.
The multiple storey, columbarium generally
includes a basement, ground floor and one or more aboveground levels. Stairways
and occasionally load hoists allow access to the various levels.
The vault structures include various levels of stacked
niches (up to a depth of 4-5 metres). The structure may at times also include
lateral or frontal vestibules. Ladders are employed to access the vault.
The niche burial (columbarium and vault) work
phase description includes various sub-phases:
niche opening, casket insertion, niche
closure.
Casket transfer operations to the niche burial site
have already been described in the “Corpse transfer” phase.
The niche is opened by removing the marble slab
(approximate weight 30 kilograms) employing a chisel or other sharp-ended tool
to lever out the slab.
Casket insertion operations vary depending on the
niche level to be used, generally ranging from ranks 4 to 7.
When the lower two ranks of niches are used, the
casket is manually inserted directly into the niche by raising it and placing
it on a wooden roller. Once the casket has been pushed in the niche completely,
the wooden roller is pulled out by means of a rope.
Burial in the third rank (approximately two metres
above ground level) involves using a movable platform placed at the same height
as the niche floor. The casket is manually lifted onto the platform floor. A
significant physical effort is required during this operation. Two operators
climb onto the platform and insert the casket into the niche employing the same
technique as described above.
Burials in the fourth and higher ranks involve the
preparation of suitable scaffolding. Hoisting equipment is generally employed
to raise the casket to the scaffolding platform floor. Alternatively, block and
tackle are employed to manually lift the casket.
The hoisting equipment is basically a platform fitted
with a roller guide. The casket is placed on the guide and fastened using
securing straps, while an operator positions himself alongside the casket on
the platform. The platform is raised by means of a hydraulic system to the
desired niche rank floor level.
The operator riding on the platform is not properly
placed to push the casket in the niche by himself. A second operator, located
on a movable ladder positioned on the platform’s opposite side, assists the
platform operator in inserting the casket into the niche.
The operation is performed in scant safety conditions
as the operator located on the movable ladder is called upon to perform his
tasks in a precarious state of equilibrium and the platform operator must adopt
odd working postures which entail high physical effort. The hoisting platform
does not allow the operator to employ a frontal position when pushing the
casket into the niche.
In certain cases the decorations of surrounding niches
do not allow the platform to be suitably placed close to the niche floor, hence
generating additional hardships for operators.
The burial procedure then calls for the closure of the
niche using a slab of preformed concrete, sealant and positioning of the
external marble slab. Concrete and marble slabs must be manually raised into
position.
Niche burials in underground vaults are significantly
different as they are exclusively performed manually due to the current
physical impossibility of employing any load handling devices. Testing working
conditions are caused by the underground niche burial structure’s lack of space
(often there are no vestibules), depth (up to 4-5 metres) and the presence of
mud and stagnant water.
No specific cleaning procedures have been established
for tool, equipment and PPEs.
Work clothes are washed by and at the operator’s
expense.
Chapter 2 -
"Equipment and machinery"
Equipment and tools:
·
Movable ladders fitted with wheels;
·
Portable ladders for access to underground niches;
·
Movable platforms and/or fixed scaffolding;
·
Trolleys;
·
Block and tackle or other manual hoisting devices;
·
Casket securing ropes, straps and chains;
·
Wooden rollers;
·
Chisels or assorted metal bars.
Equipment:
·
Casket hoisting devices.
All equipment and tools currently in use have not been
specifically designed for this use and have been modified on the spot. Hence
equipment and tools are not suited to the tasks to be performed and are often
is an unsatisfactory state of repair.
With respect to the scaffolding, assembly is often
incomplete, not all structural elements and stay bars being fitted and
authorised assembly configurations are not implemented. Lack of sufficient
space imposes significant scaffolding assembly constraints, affecting
scaffolding stability and hence impacting also on operator safe working
conditions. Scaffolding structures are modified on the spur of the moment
without adequate design considerations.
The various types of casket hoisting devices (manual
or power assisted, mechanical or hydraulic) fall within the class of load
hoisting devices which must be type approved by ISPESL. All hoisting devices
have been type approved and subjected to scheduled tests.
Type approval and scheduled testing do not ensure
adequate safe working levels for all operators involved in their use as type
approval/tests only relate to the operation of the hoisting systems and do not
consider related safety issues such as the working conditions outlined above
(working position of operators, suitability of casket securing systems,
stability under load, ergonomic considerations, suitability of equipment to the
physical constraints due to the specific working environment, etc.).
Machinery type falls within the provisions of
D.P.R.n°459/1996 (Machine Directive). All new machinery procured shall abide by
the provisions relating to basic accident prevention requisites as envisaged by
Enclosure 1 of the regulations (EC markings).
The wheeled steel ladders are fitted with a terminal
working stage. Many ladders are insufficiently stable and resilient, not all
are fitted with the prescribed safety devices such as handrail, safety railing
along three sides of the working stage, toe board, upper and intermediate stay
rods.
The working stage of some ladders is not sufficiently
broad to allow safe working conditions and lack adequate space for tools. When
these ladders are used for burials in the intermediate niche ranks, operators
are forced to work while standing on the rungs or to bend over while standing
on the terminal stage. Ladders are also used by mourners to access the niches
and consequently are all the same length so as to allow visitor access to the
highest niche ranks.
Chapter 3 -
"Hazard factor"
Safety hazards due to the physical
features of the working environment, task organisation, equipment and tools:
·
Crushing injuries to operator hands due to
slippage/fall of the niche closure blocks during opening and closure
operations;
·
Falling hazard from ladders;
·
Falling hazard when working on platforms and
scaffolding;
·
Falling hazard when working on casket lifting devices;
·
Falling hazard in the vaults (depth up to 4-5 metres;
·
Falling, impact or crushing hazard due to handling of
heavy loads under conditions of precarious operator balance especially during
casket insertion into niches and when lowering caskets into the vaults;
·
Crushing hazard due to casket slippage/fall;
·
Mechanical and electrical shock hazards deriving from
use of casket hoisting devices;
·
General injury hazard deriving from the use of hand
tools, equipment and machinery.
Personal hygiene-environmental hazards generated
by chemical, physical and biologic agents:
·
There are no chemical agent hazards in this work phase
as no specific products or substances are employed;
·
Possible biologic agent hazard during the warmer
months due to operators being soiled by biologic liquids generated by corpse
decomposition;
·
Physical agent hazard due to exposure to weather and
temperature extremes affecting all outdoor operations;
Transversal or organizational hazards due to
the nature of the work being performed and task organisation:
·
ergonomic-related hazards due to manual handling of
loads up to 200 kilograms;
·
ergonomic-related hazards due to odd working postures
and the need to exert noticeable physical effort when caskets are lowered into
the vaults, or raised onto platforms/scaffolding or inserted into the burial
niches under precarious operator balance conditions (operators working from
casket hoisting devices, ladders, platforms or inside the vaults;
·
general health hazards and physical discomfort due to
working environment conditions inside the vaults in the presence of stagnant
water and mud;
·
psychological factors related to the item being
handled and to the scant social recognition for the tasks performed.
A safety hazard estimate is furnished in the
general accident trend chapter. No specific safety hazard analysis was
performed for this work phase as operators, generally grouped as “cemetery
staff”, are also directly involved in other phases of the work cycle (burials,
grave and niche exhumations, cremation).
Accident analysis has been performed employing
accident registers relating to the entire sector during the years from
1985 to 1996.
Personal hygiene-environmental hazards due to exposure
to extreme weather and temperature conditions are significant due to
organizational shortfalls leading to lack of/unsuitability of protective
clothing. The above hazards may not be readily quantified.
A biologic agent (HBV-HCV) exposure hazard is present
albeit of a minor entity if compared to that of other work cycle phases.
Contact with potentially contaminated biologic
materials may occur during operations performed in the summer months. Rapid
corpse decomposition produces such materials that cause cracking of the zinc
coffin and soiling of the casket.
Hazards related to odd working postures and physical
effort because of manual load handling, though not readily quantifiable, remain
relatively high as high workloads requiring physical effort may cause rachis
lesions, acute lumbago and scapulohumeral link lesions.
An analysis of working conditions identified numerous
instances of high mechanical overload of the entire locomotor apparatus and
especially of the lumbar rachis. Axial compression levels are frequently higher
than the first safeguard threshold (350 kgs) and occasionally exceed the
maximum tolerable threshold level (650 kgs).
Overload situations for operators tasked with this
work cycle phase vary depending on the type of burial (niche burial height
above floor level, vault burial), daily personal task distribution and
operation frequency (approximately 1500 funerals/annum).
Acute and chronic spinal column pathologies were
studied using clinical functional rachis composition protocols established by
the EPM research unit (Ergonomia della Postura e del Movimento-
Ergonomics of Posture and Motion), Milan.
The protocols incorporated also various other clinical
tests, prevailingly X-ray tests, for more precise diagnosis definition of
specific cases.
A hazard estimate of the psychologic hardships
is not readily assessable due to the lack of specific studies
Chapter 4 -
"Expected Injuries"
·
Sprains, contusions, fractures, cuts and
lacerated/contused wounds, crushing injuries, fall-induced traumas due to
safety hazards;
·
Colds caused by working outdoors (exposure to physical
agents);
·
Acute lumbosciaticas, muscular sprains,
cervical/dorsal/ lumbosacral spondyloarthropathies (SAPs) caused by handling of
heavy loads and to odd working postures;
·
Psychological hardship
Report of detected injuries
The accident trend is described in the aforementioned
chapter and includes data relating to the entire sector.
No data relating to potential injuries caused by
exposure to extreme weather and temperature conditions was found.
The following data results from the medical tests to
which cemeterial staff were subjected to by CEMOC (Centro di Medicina
Occupazionale e di Comunità-Centre for occupational and community medicine)
in 1990-1991 (280 operators) and 1992-1993 (257 operators), with respect to
injuries deriving from the handling of heavy loads, odd working postures and
high physical exertion. Data relates to the entire “cemetery staff” group and
includes all work cycle phases (interment and niche burials and exhumations,
cremation).
Data shows a particularly high percentage of
individuals affected by acute lumbago. The number of workers complaining of
substantial episodes of acute lumbago in the course of their working life
totals 20% of cemeterial staff. Acute lumbago episodes that occurred in the
year prior to the visit totalled 8.5% of cemeterial staff.
The above data shows a prevalence of cervical SAP
(12.9%), dorsal SAP (11%) and lumbosacral SAP (25%). Data thus indicates that
cemeterial staff show a tendency to lumbosacral rachis complaints significantly
higher than workers not exposed to manual load handling hazards. Cervical and
dorsal rachis complaints are not particularly significant in this worker group.
A comparison of the above data with those relating to
sextons (transport phase) shows that acute lumbago hazards are significantly
higher for cemetery staff (intense, not protracted physical effort) whereas
cervical, dorsal and lumbosacral rachis pathology hazards, which are directly
related to the frequency of operations, are greater for operators performing
transfer tasks (sextons).
Chapter 5 -
"Preventive Measures"
In view of the critical situations described in this
phase, it is obvious that the sole preventive measure apt to offer an overall
solution is that of tasking the municipality’s design staff to produce suitable
layouts/designs for cemetery niche and vault burial structures.
With respect to multi-storey above ground niche burial
structures, the measures could, for example, envisage structures built so as to
make all niche ranks accessible to suitable casket hoisting devices. In so
doing the need for movable platforms and scaffolding would be done away with;
structure design could also envisage suitably sized lifts and hoists, for
casket access to the various storeys; close to the niches, suitable manoeuvring
areas and repositioning of tomb decorations could be envisaged in order to
ensure easier casket handling and niche insertion.
With respect to below ground niche vaults, the design
should always envisage suitably sized vestibules apt to ensure safe operator
working conditions or, preferably, to allow the installation of fully
mechanized casket handling/positioning systems.
Not wishing to undertake an in-depth analysis of the
merits of the above suggestions, the authors have decided to address those
measures that have been or that may be implemented within the framework of the
current organisational structure.
The hazard reduction measures related to the removal
and repositioning of the niche closure slabs and the casket raising and
insertion operations, have involved the proposal to employ suitable suction
cup-equipped carrying handles for the slabs (hand/finger crushing injuries),
the issue of suitable PPEs and the initiation of an operator information and
training programme.
Suitable PPEs have been issued for burial operations:
steel-capped footwear, leather hand gloves, protective helmet for above ground
niche burials; waterproof or steel-capped footwear, waterproof coveralls,
leather hand gloves and protective helmets for vault niche burials.
The use of vacuum pumps to remove stagnant water has
been prescribed as a measure aimed at reducing operator hardship during below
ground niche burials.
Formal procedures have been established relating to
PPE, tools and casket transfer and hoisting equipment cleaning and decontamination
processes.
Work clothes/uniforms shall be laundered by the
Administration in centralised facilities.
The mechanisation of all operations involving casket
transfer and handling is the sole measure apt to reduce all manual
load-handling hazards.
In no way reducing the importance of the previously
mentioned issues concerning the need to review the physical features of current
cemetery layouts, a procurement programme has been currently initiated for
casket hoists of more suitable size and technical performance. This programme
shall allow the elimination of casket hoisting operations involving the use of
portable platforms and scaffolding.
The newly procured
equipment shall also eliminate all safety hazards due to the unsuitability of
previous equipment used in casket niche insertion operations (portable ladders,
hoists not fitted with adequate casket securing devices, odd working postures,
etc.).
Due to the
impossibility of using mechanised handling systems in below ground niche vaults
and in anticipation of definite solutions concerning the total automation of
all load handling tasks, a stop gap measure has been implemented. The measure
aims at declaring workers either temporarily or permanently unsuited to these
tasks in cases of certified rachis pathologies. During the 1990 examinations,
40 such pathologies were reported, i.e.14.5% of all operators: a further 47
were reported during the 1992 examinations, i.e. 17.7% of all operators).
Please note that, like in previously mentioned cases, data refer to the entire
“cemetery staff” group. Group members are also directly involved in other work
cycle phases such as interment and niche burials and exhumations, cremations.
Chapter 6 -
"Outsourcing"
Normally this work
phase is not subject to outsourcing agreements. At times the work is performed
by employees of private companies.
Chapter 7 -
"Legislative References"
The hereunder-listed legislative and bibliographic
references relate to all the phases of the entire working cycle.
·
D.P.R.n°547/1955 – Workplace Accident Prevention Rules
·
D.Lgs.n°626/1994 and subsequent amendments –
Implementation of Directives n°89/391/EEC, n°89/654/EEC, n°89/655/EEC,
n°89/656/EEC, n°90/269/EEC, n°90/270/EEC, n°90/394/EEC and n°90/679/EEC
relating to the enhancement of worker safety and health
·
D.Lgs.n°475/1992 – Implementation of Council Directive
89/686/EEC dated 21/12/1989 relating to harmonization of member states’
legislation concerning personal protection equipment
·
D.P.R.n°459/1996 – Implementation regulations for
Directives n°89/392/EEC, n°91/368/EEC, n°93/44/EEC and n°93/68/EEC relating to
harmonization of member states’ legislation concerning Machinery
·
D.Lgs.n°494/1996 – Implementation of Directive
n°92/57/EEC relating to minimum safety and health requirements for temporary or
mobile construction sites
·
Municipal building and health regulations
·
D.P.R.n°285/1990 – Approval of Mortuary police
Regulations
·
Municipal Morgue Police Regulations
·
Law n°292 dated 05/03/1963 (Mandatory anti-tetanus
vaccination)
·
D.M. 26/04/1990 and D.M. 04/10/1991 (Identification of
risk groups for Hepatitis B virus vaccination)
·
D.P.R.n°203/1988 – Implementation of Directives n°80/779/EEC,
n°82/884/EEC, n°84/360/EEC and 85/203/EEC concerning air quality regulations
relating to specific pollution and polluting agents produced by manufacturing
facilities pursuant to Article 15, Law n°183 dated 16/04/1987
·
D.Lgs.n°22/1997 and subsequent amendments –
Implementation of Directives n°91/156/EEC concerning waste disposal,
n°91/689/EEC concerning hazardous wastes and n°94/62/EEC concerning packaging
and packaging wastes
·
Ministry of Health Circular issued 20/06/1983 n°57:
Formaldehyde Uses: hazards deriving from formaldehyde use.
·
D.Lgs.n°626/1994 Legislative Decree Application
Guidelines issued by Autonomous Regions and Provinces Coordination Agency,
October 1996
·
Ministry of Health – National AIDS Commission –
Guidelines to health operators for HIV infection control, Rome 06/09/1989
·
Law n°135 dated 05/06/1990 – Programme of urgent AIDS
prevention and counter measures
·
Ministry of Health Decree dated 28.9.1990 – Rules
concerning professional HIV infection protection in public and private hospitals
and health service facilities
·
NIOSH: "Work practices guide for manual
lifting", NIOSH Technical Report n°81-122. U.S., 1981
·
Proceedings of 1st National Seminar
“Occupational hazards in certain least developed tertiary sectors (solid urban
wastes, funeral services, supermarkets)” – SNOP – Milan, 23 May 1994
·
Proceedings of 1st Seminar “Public
Administration and Legislative Decree n°626” – SNOP – Turin, 30 & 31 May
1996
·
Occhipinti, Colombini, Cattaneo, Cervi, Grieco – Work
postures and rachis alterations in funeral service operators - Med. Lav. -
1988, 79: 6
·
American Conference of Governmental Industrial
Hygienists (ACGIH) - Threshold limit values for chemical substances 1995-96
·
International Agency for Research on Cancer (IARC) -
Monographs on the evaluation of carcinogenic risk to humans
Chapter 8 -
"Environmental hazards"
No
specific environmental hazards are generated by this work phase.
1. WORK CYCLE PHASE : CREMATION
2. INAIL CODE : 93.03
3. HAZARD FACTOR :
4. HAZARD CODE :
5. Num. of EMPLOYEES : 11
Chapter 1 -
"Work Phase Description"
Cremation
involves placing the casket in a furnace so as to incinerate the corpse. The
Municipality of Milan operates a two-furnace cremation facility.
This type of burial is becoming more popular: with
respect to 15,000 funerals/annum, currently 3,000 cremations are performed each
year.
The 11 staff members perform the following tasks:
·
Casket handling operations within the facility;
·
Casket placement in furnaces;
·
Collection and burial of remains.
Furnace operation and maintenance are subject to an
outsourcing agreement.
The funeral vehicle transfers the casket to the
cremation facility. Four operators manually lift the casket from the vehicle
and place it on a trolley. The trolley is wheeled on a flat surface to the cool
stationing rooms or refrigerated cells, respectively holding 30 and 80 corpses.
Within the cool rooms, the four operators manually
lift the casket from the trolley and place it on two trestles.
Refrigerated cell storage involves an additional load
lifting phase as cells are located on two levels, the topmost being
approximately 150 centimetres above floor level. The casket is lifted from the
trolley and one of its ends is propped against the cell floor opening;
operators then lift the other end and push the casket into the cell.
Prior to placing the casket in the cell, all metal
fixtures such as carrying handles, decorations, etc. are removed by operators
wearing hand gloves and face shields and using power driven tools, hammers and
hand-held screwdrivers.
On the scheduled cremation day, the casket is
retrieved from the cool stationing rooms or refrigerated cells and transferred
using a trolley, to the cremation room. The casket is then transferred onto
another, smaller trolley carrying wooden cross beams, at a height of
approximately 18-20 centimetres above floor level. The operator then manually
pushes the lower, casket-carrying trolley to the furnace access hatch.
An additional phase may be required if the corpse is
located within a zinc internal or external coffin, as is the case for
contaminated corpses or corpses coming from other municipalities.
In such cases, prior to proceeding with the cremation
procedure, the zinc coffin must be removed. In the majority of cases, the zinc
coffin is external and is thus cut open and removed using small power driven,
hand-held milling machines. In the less likely event of an internal coffin, the
procedure involves removing the casket’s wooden lid, cutting and removal of
accessible zinc coffin parts, lifting the corpse, cutting and removing the
remainder of the coffin and repositioning of the corpse in the casket. Zinc
cuttings are stored in an appropriate area of the cemetery.
An automatic system pushes the casket into the
furnace.
The electro-hydraulic system includes two rails,
fitted flush with the floor, that raise the casket and cross beams off the
trolley. The rails then move forward in the horizontal plane to the hatch
opening.
The operator monitors and controls the operation by
means of a console located beside the furnace.
The automatic operating cycle opens the furnace hatch
only when the lift and carry rails are properly aligned.
The hatch opens automatically and the carrying rails
move forward to place the casket and cross beams on the supporting framework.
The rails drop down, leaving the casket on the framework and retract into their
original housing.
In case of emergency, the hatch may also be opened
manually.
A single operator, located alongside the hatch
opening, is capable of monitoring these operations and can at any time override
and block the automatic operating cycle.
The hatch opening mechanism is not interlinked with
the rail lift and carry device, hence there is the possibility that the hatch
could be closed during casket loading operations.
Cremation furnaces are electric powered reverberatory
furnaces with high heat absorption refractory lining. Each furnace has a 75,000
kcal/hr. power rating and is fitted with a post-combustion device located under
the main chamber.
Combustion air is blown into the chamber from below
through three blower-assisted ducts. Negative pressure is maintained inside the
combustion chamber by automatic exhaust gas flue-flow and air blower speed
adjustments.
Furnace temperature at the time of casket insertion
range from 600-700 C°, whereas actual combustion takes place at temperatures
ranging from 900 to 1,100 C°, depending on corpse and casket requirements.
Each cremation cycle last approximately 90 minutes,
again depending on corpse and casket requirements.
At the rear of the furnace, a small inspection hatch
allows visual monitoring of cremation operations.
Sometimes, at the completion of the combustion cycle,
some unburnt parts are still present in the chamber. The hatch must be opened
to permit furnace content repositioning using a long handled furnace-cleaning
rod.
Safety considerations require that this operation be
performed without other staff members stationing in the immediate vicinity of
the furnace hatch. Furnace operators must wear protective coveralls, helmet and
face shield and Kevlar protective gauntlets and breastplate.
The furnace operating cycle is managed by an operator
by means of a console (command and control station). The principal parameters
monitored are combustion chamber and post-combustion device temperature,
opacity of fumes (all furnaces are fitted with fume strippers and negative
combustion chamber pressure.
Upon completion of the cremation cycle, the operator
gains access to the post-combustion device hatch in order to remove the remains
that have been collected on a plate. Using a small rake, the operator drops the
remains into a cooling tray located below the plate. During these operations,
operators wear long sleeved, Kevlar-fabric heat shielding coveralls, Kevlar
heat shielding gauntlets, facemasks fitted with carbon filtering element.
After approximately 15 minutes the remains have cooled
sufficiently for the operator to tip the content of the cooling tray into a
collection tray. Operator wears long sleeved, TNT non-fabric fabric coveralls,
heat shielding gloves and facemask with carbon filtering element while
performing these tasks.
The collection tray is transferred to the ventilated
screening booth where the bone remains are separated from the casket ash and
subjected to a metal removal, deferrization process. The screening process is
performed automatically whereas metal removal is performed manually employing
an electromagnet. Bone remains fall through and are collected directly in a
zinc box.
The zinc box is immediately sealed on a ventilated
workbench using a lead/tin solder.
Residual dust from the screening process is directly
collected and stored in plastic containers. When full, containers are sealed
and disposed of by specialised contractors.
The zinc box is subsequently buried in a cinerary
plot.
Chapter 2 -
"Equipment and machinery"
Equipment and tools:
·
Various sized casket transfer trolleys;
·
Trestles;
·
Refrigerated cells;
·
Collection tray for remains;
·
Zinc boxes;
·
Sn/Pb soldering equipment;
·
Ventilated screening booth;
·
Power-driven/manual screwdrivers;
·
Hammers;
·
Screwdrivers;
·
Small power-driven milling machine for zinc coffin
opening operations;
·
Long-handled furnace cleaning rods;
·
Furnace rake;
·
Electromagnet.
Machinery:
·
funeral vehicle;
·
casket loading system;
·
cremation facility.
Machinery, equipment and tools are in a good state of
repair as a result of established, regular maintenance programmes.
Some machinery and items of equipment fall within the
sphere of application of D.P.R.n°459/1996 (national acknowledgement legislation
with respect to the implementation of the Machine Directive). Items affected
are all electric powered and manually operated equipment, automated casket
rail-loading electro-hydraulic operating system, ventilated screening booth.
The furnace itself could be considered as generally
falling within the scope of the above directive. Furnaces also include
power-assisted moving mechanical parts.
Most likely directive prescriptions should apply to
those furnace parts surely falling within the regulatory definition of
“machines” such as the furnace hatch opening system.
The equipment and machinery present in the cremation
facility was procured prior to the coming into force of D.P.R.n°459/1996.
Procurement of new machines and equipment shall be
pursued in accordance with the basic safety requirements envisaged by Enclosure
I, D.P.R.n°459/1996 (Definition of Machines).
Chapter 3 -
"Hazard factor"
The safety hazards are due to the physical
features of work sites, work organization, equipment/hand-tools and machinery
employed:
·
Crushing injuries, violent impact and slippages
produced during casket transfer within confined spaces (passageways, cool
rooms, refrigerated cells, etc.);
·
Crushing and cutting injuries, violent impact, snaring
by the moving mechanical parts of the casket furnace loading system. A general
hazard generated by contact with moving parts of other machines and equipment;
·
General accident hazard due to handling of work tools.
·
General electric shock hazard generated by the use of
equipment;
·
Burn injury hazard generated by possible operator
contact with high temperature machinery parts and/or materials such as the
remains collection tray and access hatch, furnace hatch opening systems and the
like;
·
General accident hazard due to activities performed near
systems equipped with energy storage devices;
·
Cutting lesion hazards caused by handling of sharp
edged materials (jagged edges of zinc coffin, etc.)
Personal hygiene-environmental hazards due to
the presence of chemical, physical and biologic agents:
·
Chemical agent hazard due to Sn-Pb soldering
operations of the zinc boxes and the presence of dust in the remains collection
area;
·
Physical agent hazard due to the presence of high
temperature radiant heat sources especially during work phases involving furnace
hatch opening operations;
·
Physical agent hazard due to work activity performed
inside or near the cool rooms and refrigerated cells (exposure to low
temperatures);
·
Possible biologic agent hazard due to operators coming
into contact with and handling caskets soiled by potentially contaminated
biologic liquids (HBV-HCV);
·
Biologic agent hazard due to contact with and handling
of items and surfaces that may be smeared with soil (Tetanus) associated to
possible cut and puncture lesions.
Transversal or organizational hazards due to
the nature of the tasks being performed and work organisation:
·
ergonomic-related hazards due to manual handling of
loads up to 200 kilograms (caskets);
·
ergonomic-related hazards due to odd working postures
and the need to exert noticeable physical effort during casket transfer
operations;
·
psychological factors related to the item being
handled and to the scant social recognition for the tasks performed.
Safety hazard estimates are furnished in the
chapter dealing with general accident trends. Accident analysis has been
performed employing accident registers relating to the entire sector
during the years from 1985 to 1996.
No environmental tests were conducted to assess personal
hygiene and environmental hazards due to inhalation of Sn-Pb soldering fumes.
Local exhaust ventilation devices control and limit such hazards.
No environmental tests were performed on airborne
dust hazards. The use of exhaust ventilation devices during those phases
where the dispersion of such particles is most likely (screening of remains)
and the generalised use of masks and filters to protect respiratory tract of
operators have contributed to controlling and limiting such hazards.
Physical agent hazards due to the presence of high
temperature radiant heat sources are not significant as a result of the
implementation of suitable work organisation measures (no operators near open
furnace hatches) and the issue of suitable personal protection devices.
With respect to hazards due to work performed near
corpse refrigeration systems, no particular hardships were identified in
relation to corpse transfers within the cool storage and refrigeration areas.
Frequent operator access to such areas however may generate a significant
hazard due to the frequent exposure to different temperatures.
The entity of these hazards is not readily
quantifiable.
A high biologic agent hazard is present due to
possible operator contact with potentially contaminated materials (HBV-HCV).
The virus’ long environmental survival times and high contagion level are
responsible for the biologic hazard and are compounded when PPEs are not
properly employed.
The hazard manifests itself during corpse handling
tasks (rare) and casket transfer and handling operations due to the possible
seepage and subsequent soiling of the caskets by biologic liquids.
The Tetanus infection hazard is relatively low as a
result of the extension of mandatory prophylaxis procedures to this class of
operators.
In 1990 and again in 1993, all staff were subjected to
blood test in order to assess exposure to biologic hazard (- markers HBV
(1990-1993) and HCV (1993)-).
Hazards related to odd working postures and physical
effort because of manual load handling, though not readily quantifiable, remain
relatively high as high workloads requiring physical effort may cause rachis
lesions, acute lumbago and scapulohumeral link lesions.
In this work phase, there are fewer operations
involving physical exertion if compared to the overload situations to which all
other workers of the sector are exposed. Overload situations occur when
operators transfer caskets to and from the various working levels (funeral
vehicle load bed, trolley, refrigerated cell), vertical raising operations (20
centimetres maximum above floor height) and the rare cases requiring actual
corpse handling.
Acute and chronic spinal column pathologies were
studied using clinical functional rachis composition protocols established by
the EPM research unit (Ergonomia della Postura e del Movimento-
Ergonomics of Posture and Motion), Milan.
The protocols incorporated also various other clinical
tests, prevailingly X-ray tests, for more precise diagnosis definition of
specific cases.
A hazard estimate of the psychologic hardships is
not readily assessable due to the lack of specific studies.
Chapter 4 -
"Expected Injuries"
·
Sprains, contusions, fractures, cuts and
lacerated/contused wounds, injuries caused by foreign bodies, burn lesions,
electrical shock injuries due to safety hazards;
·
Colds caused by working under extreme temperature
conditions close to sources of radiant heat and to corpse refrigeration system
components;
·
Injuries cause by exposure to Sn-Pb fumes n(soldering
operations);
·
Parenterally transmitted biologic agent infections
(HBV, HCV and Tetanus);
·
Acute lumbosciaticas, muscular sprains,
cervical/dorsal/ lumbosacral spondyloarthropathies (SAPs) caused by handling of
heavy loads, physical exertion and to odd working postures;
·
Psychological hardship
Report of detected injuries
The accident trend is described in the aforementioned
chapter and includes data relating to the whole sector.
The low occurrences of accidents since the creation of the new facility
confirm that the new structure and the partial automation of certain
operations, have significantly improved overall safety levels.
No data relating to chemical and physical agent hazards was available.
The use of suitable dust and fumes exhaust ventilation systems and the partial
automation of the work phases performed in the vicinity of the cremation
furnaces have contributed to overall hazard reduction.
Studies performed on other worker groups not
particularly exposed to biologic hazard (e.g. municipal police officers)
produced positive results in 20% of cases.
During the time period 1990-1993 2 new HBV infection
cases were recorded for cemetery staff (out of 126 non-immune operators). Two
cases, which had tested negative to all markers in 1990, tested positive in
1993 to HBsAb and/or HBeAb and/or HBcAb markers.
Workers were subsequently subjected to Hepatitis B
vaccinations.
Data refers to the entire cemetery staff group and
relate to all work phases performed. Data aggregates may not be broken down for
each work phase for the previously mentioned reasons.
The following data results from the medical tests to
which cemeterial staff were subjected to by CEMOC (Centro di Medicina
Occupazionale e di Comunità-Centre for occupational and community medicine)
in 1990-1991 (280 operators) and 1992-1993 (257 operators), with respect to
injuries deriving from the handling of heavy loads, odd working postures and
high physical exertion.
Data generated by the two studies indicate a
particularly high percentage of individuals affected by acute lumbago. The
number of workers complaining of substantial episodes of acute lumbago in the course
of their working life totals 20%. Acute lumbago episodes that occurred in the
year prior to the visit totalled 8.5%.
The above data shows a prevalence of cervical SAP
(12.9%), dorsal SAP (11%) and lumbosacral SAP (25%). Data thus indicates that
staff show a tendency to lumbosacral rachis complaints significantly higher
than workers not exposed to manual load handling hazards. Cervical and dorsal
rachis complaints are not particularly significant in this worker group.
A complete risk assessment was not possible because
data relating to crematory staff could not be broken down from that of other
cemetery workers.
The introduction of automated casket handling systems
in certain operations has significantly reduced hazards and the occurrence of
potential injuries in this phase.
Chapter 5 -
"Preventive Measures"
Hazard limitation or elimination measures so far
implemented include: use of more suitable casket handling equipment, partial
automation of the various work cycle phases and issue of suitable and specific
PPEs. Numerous measures have already been implemented during the construction
of the cremation facility.
More specifically:
·
Trolleys with different mechanical specifications
depending on the type of transfer to be performed, have been procured (adjustable
height trolleys) in order to reduce hazards related to casket handling
operations;
·
Suitable local exhaust ventilation systems have been
installed for all operations apt to generate airborne pollutants (soldering
fumes or dust);
·
Casket furnace insertion operations have been
automated thus avoiding the presence of operators in the area when the hatch is
opened. Union regulations have been issued banning the use of zinc coffins
inside the caskets and promoting the use of external zinc coffins in those cases
envisaged by Mortuary Police Regulations;
·
Portable, electric powered milling machines for zinc
coffin opening operations in order to reduce direct contact hazard with sharp
coffin edges;
·
Actual corpse handling, in cases of internal zinc
coffins, has been tasked to morgue staff as they are better trained to handle
specific contamination and handling hazards;
·
The cremation furnaces are fitted with all requisite
safety devices in order to avoid fumes and odours being dispersed in the
surrounding work environment;
·
The electric power systems have been realised
according to the technical standards currently in force;
·
Appropriate fire fighting equipment (hand-held and
wheeled fire extinguishers) have been suitably positioned in the work areas
near the furnaces;
·
Appropriate safety signposting has been positioned in
all work areas;
·
Suitable and specific PPEs, listed in the “work phase”
description, have been issued for all operations involving residual hazards.
The issue of specific PPEs has affected the following areas: heat shielding,
dust exposure protection during collection and removal of remains from the
furnace, soiling protection during casket transfer operations, cutting injury
during metal coffin sectioning and removal operations;
·
Cleaning and decontamination of all work areas,
especially the refrigerated cells, has been contracted out. Contractors
implement formal protocols (methodology and frequency);
·
The contractor that directly manages furnace operation
is also tasked with implementing scheduled maintenance programmes;
·
An operator vaccination programme (Hepatitis B and
Tetanus) has been initiated;
·
Work clothes and uniforms are laundered by the
Municipal Administration in centralised facilities.
In the course of the study, instructions were issued
to mark the operational floor area of the casket furnace insertion system using
horizontal safety markings, in order to prevent hazards deriving from the
accidental impact with the system’s moving parts.
The Ministry of Health’s Accident Prevention
Department is currently planning an experimental programme to test the
“Barriera” biodegradable protective device as a replacement for zinc coffins in
cremation procedures.
Chapter 6 -
"Outsourcing"
Cleaning of work areas and cleaning and
decontamination of the refrigerator cells is subject to an outsourcing
agreement.
Operation, maintenance and cleaning of cremation
furnaces are subject to an outsourcing agreement.
Chapter 7 -
"Legislative References"
The hereunder-listed legislative and bibliographic
references relate to all the phases of the entire working cycle.
·
D.P.R.n°547/1955 – Workplace Accident Prevention Rules
·
D.Lgs.n°626/1994 and subsequent amendments –
Implementation of Directives n°89/391/EEC, n°89/654/EEC, n°89/655/EEC,
n°89/656/EEC, n°90/269/EEC, n°90/270/EEC, n°90/394/EEC and n°90/679/EEC
relating to the enhancement of worker safety and health
·
D.Lgs.n°475/1992 – Implementation of Council Directive
89/686/EEC dated 21/12/1989 relating to harmonization of member states’
legislation concerning personal protection equipment
·
D.P.R.n°459/1996 – Implementation regulations for
Directives n°89/392/EEC, n°91/368/EEC, n°93/44/EEC and n°93/68/EEC relating to
harmonization of member states’ legislation concerning Machinery
·
D.Lgs.n°494/1996 – Implementation of Directive
n°92/57/EEC relating to minimum safety and health requirements for temporary or
mobile construction sites
·
Municipal building and health regulations
·
D.P.R.n°285/1990 – Approval of Mortuary police
Regulations
·
Municipal Mortuary police Regulations
·
Law n°292 dated 05/03/1963 (Mandatory anti-tetanus
vaccination)
·
D.M. 26/04/1990 and D.M. 04/10/1991 (Identification of
risk groups for Hepatitis B virus vaccination)
·
D.P.R.n°203/1988 – Implementation of Directives
n°80/779/EEC, n°82/884/EEC, n°84/360/EEC and 85/203/EEC concerning air quality
regulations relating to specific pollution and polluting agents produced by
manufacturing facilities pursuant to Article 15, Law n°183 dated 16/04/1987
·
D.Lgs.n°22/1997 and subsequent amendments –
Implementation of Directives n°91/156/EEC concerning waste disposal,
n°91/689/EEC concerning hazardous wastes and n°94/62/EEC concerning packaging
and packaging wastes
·
Ministry of Health Circular issued 20/06/1983 n°57:
Formaldehyde Uses: hazards deriving from formaldehyde use.
·
D.Lgs.n°626/1994 Legislative Decree Application
Guidelines issued by Autonomous Regions and Provinces Coordination Agency,
October 1996
·
Ministry of Health – National AIDS Commission –
Guidelines to health operators for HIV infection control, Rome 06/09/1989
·
Law n°135 dated 05/06/1990 – Programme of urgent AIDS
prevention and counter measures
·
Ministry of Health Decree dated 28.9.1990 – Rules
concerning professional HIV infection protection in public and private
hospitals and health service facilities
·
NIOSH: "Work practices guide for manual
lifting", NIOSH Technical Report n°81-122. U.S., 1981
·
Proceedings of 1st National Seminar “Occupational
hazards in certain least developed tertiary sectors (solid urban wastes,
funeral services, supermarkets)” – SNOP – Milan, 23 May 1994
·
Proceedings of 1st Seminar “Public
Administration and Legislative Decree n°626” – SNOP – Turin, 30 & 31 May 1996
·
Occhipinti, Colombini, Cattaneo, Cervi, Grieco – Work
postures and rachis alterations in funeral service operators - Med. Lav. -
1988, 79: 6
·
American Conference of Governmental Industrial
Hygienists (ACGIH) - Threshold limit values for chemical substances 1995-96
·
International Agency for Research on Cancer (IARC) -
Monographs on the evaluation of carcinogenic risk to humans
Chapter 8 -
"Environmental hazards"
This activity may generate hazards to the surrounding
environment resulting from cremation furnace exhausts.
The furnaces, equipped with combustion chamber and
post-combustion device, are fitted with dust suppression systems.
Exhaust emissions are subject to authorization
pursuant to the provisions of D.P.R.n°203/1988 that established dust concentration
thresholds for environmentally vented exhausts. The cremation plant is fitted
with an opacimeter allowing continuous plant monitoring and control.
As this type of combustion does not generate other
polluting agents, no other emission parameters were reported.
Local exhaust ventilation devices installed on the
remains-screening booth and the Sn-Pb soldering bench are fitted with pollution
reduction devices.
Residual dusts from the remains screening operation
are considered dangerous wastes (noxious if inhaled or ingested). Specialised
contractors are tasked with the disposal of such wastes.
Zinc cuttings, removed from the caskets prior to
cremation, are washed, decontaminated and stored in a dedicated area. Approved
contractors are tasked with the subsequent disposal of such wastes.
The dedicated area is suitably paved and equipped with
a waste water drainage system.
1. WORK CYCLE PHASE : EXHUMATION (interment burial)
2. INAIL CODE : 93.03
3. HAZARD FACTOR :
4. HAZARD CODE :
5. Num. of EMPLOYEES : 196 CEMETERIAL STAFF
Chapter 1 -
"Work Phase Description"
Interment burial exhumations involve the recovery of
copse remains from the tomb.
In general this operation is performed after ten years
have elapsed since burial. The operations are scheduled so as to avoid
performing them during the warmer months. Under special circumstances, corpse
recovery may be required prior to the expiry of such period of time.
Circumstances include magistrates’ orders or request for the corpse to be
transferred to other burial site.
Programmed exhumation operations are performed over a
two-day period. The exhumation site is cleared and prepared for excavation on
the first day, actual exhumation operations follow the next day.
The excavation site is cleared of monuments and floral
decorations. A mechanical excavator is used to remove the soil from the whole
burial trench. Excavation depth is approximately 1.2 metres, leaving a few
centimetres of soil over the caskets.
Actual exhumation operations, involving manual removal
of residual soil, casket opening and collection of remains, are performed on
the next day. The number of operators varies as a function of the size of the
trench to be excavated (approximately 20 operators for large exhumation sites).
Second day operations involve manually removing all
residual soil generated by the previous day’s preparations. Caskets are
unearthed using picks and grappling hooks. Grappling hooks are also employed to
“rip open” any zinc caskets.
Weather conditions directly affect this work phase as
operators are often called upon to perform their allotted tasks under
particularly rigorous conditions (stagnant waters, mud, snow and ice in the
colder months).
The remains collection phase involves manual retrieval
of corpse remains employing protective rubber gloves. Bone tissue remains are
handed by the operator working in the trench to another operator positioned on
the lip of the excavation trench. This operator brush cleans the remains and
places them in a zinc box, prior to transfer to the ossuary.
If remains are to be transferred from the cemetery, the box is sealed using
tin/lead solder. Soldering operations are performed outdoors or in a specific
room. The room is not fitted with exhaust ventilation systems.
The remains collection phase is a relatively
straightforward operation when dealing with dry materials and a completely
mineralised corpse. The process becomes remarkably more arduous when dealing
with water seepages and incompletely mineralised corpses.
In cases of incomplete corpse mineralization, corpse
remains are manually lifted from the casket and placed in another casket. The
latter casket is immediately sealed and transferred by motor vehicle to another
burial field. All “undecomposed” corpses are buried in this specific field, at
a depth of 60 centimetres. Milan cemetery data indicate that 50% of all
interment burial exhumations fall within this case group.
Prior to moving on to the next exhumation, operators
rinse clean their tools at the nearest water faucet. Operators then return to
the excavation site for the next exhumation (mean average 3-4 exhumations per
work shift).
Upon completion of exhumation operations, the field is
levelled employing the mechanical excavator. Miscellaneous casket and zinc
coffin parts are buried on site.
Extraordinary exhumations also involve operations
performed over a two-day period. On the first day, excavation work is performed
to a depth of 1.50 metres; actual exhumation operations are performed on the
next day. Excavation work is performed by two operators, employing picks and
shovels, that take turns in the excavation (there is insufficient room for the
mechanical excavator as the excavation site affects a single tomb).
Excavation trench sides are shored up using
prefabricated elements starting at 80 centimetres below ground level and
continuing until the desired depth is reached. Four operators, one working from
within the tomb, manually raise the casket to the surface employing two ropes.
The casket is then transferred to an appropriate storage area where the
external wood casket is removed (in cases involving inner zinc coffins). A new
casket is employed during transfer to the morgue or other burial site.
The motor vehicle used during transfers is only
decontaminated prior to being subjected to workshop maintenance cycles.
Tools and reusable PPEs are cleaned at the end of each
work shift. Cleaning operations are performed manually, on a non-programmed
basis, without specific cleaning and decontamination procedures. Disposable
PPEs are collected in standard solid urban waste containers.
Individual operators launder work clothes and uniforms
at home.
Chapter 2 -
"Equipment and machinery"
Equipment:
·
Casket hoisting ropes;
·
Portable ladders for tomb access;
·
Prefabricated shoring elements;
·
Trolleys;
·
Collection trays for remains;
·
Zinc boxes;
·
Caskets for incompletely mineralised corpses;
·
Sn-Pb soldering equipment.
Hand tools:
·
Shovels;
·
Picks;
·
Grappling hooks;
·
Brushes.
Machinery:
·
Mechanical excavators;
·
Motor vehicles (vans).
Equipment, tools and machinery currently in use are
not subject to “EC marking” as they do not fall within the definition of
“Machine” as envisaged by the “Machine Directive” DPRn°459/1996. Mechanical
excavators were procured prior to the coming into force of said national
acknowledgement legislation.
All equipment employed excepting the prefabricated
wooden shoring elements was not specifically procured for this particular
application but was adapted and modified on the spot. Hence equipment and tools
are not suited to the tasks to be performed and are often is an unsatisfactory
state of repair.
Zinc boxes and lids are roughly fabricated, with
unfinished and sharp edges.
Chapter 3 -
"Hazard factor"
The safety hazards are due to the physical
features of work sites, equipment/hand-tools and machinery employed:
·
Falling hazard due to the uneven ground of the burial
sites;
·
Hazards deriving from the use of the mechanical
excavators (e.g. excavator overturning/tipping over);
·
Falling hazard into the grave excavation (fall from a
height of approximately 1.20-1.50 metres;
·
Potential trench cave in hazard during work performed
inside the grave;
·
Falling injury hazard while working inside the
excavation trench on uneven ground, heightened by adverse weather conditions;
·
Falling/crushing/violent impact injury hazards during
manual handling of heavy loads under unstable operator equilibrium conditions
especially during casket raising operations in case of extraordinary
exhumations;
·
Cutting lesion hazards caused by handling of sharp
edged materials (jagged edges of zinc boxes, grappling hook, wood splinters,
zinc coffin sections, bone tissue fragments;
·
General accident hazard due to handling of work tools.
Personal hygiene-environmental hazards due to
the presence of chemical, physical and biologic agents:
·
chemical agent hazard due to inhalation of solder
fumes generated by lack of suitable local exhaust ventilation devices;
·
chemical agent hazard due to possible dust inhalation
during excavation and soil transfer operations;
·
Physical agent hazards are due to the noise generated
by the mechanical excavator;
·
Physical agent hazards due to exposure to extreme
weather conditions involving all operations performed outdoors;
·
Biologic agent hazard during programmed exhumations
due to contact with and handling of soiled items and surfaces (Tetanus)
associated to the presence of possible cutting and puncture injuries
(casket/coffin lid removal);
·
Biologic agent hazard during extraordinary exhumations
due to contact with and handling of items and surfaces soiled by potentially
contagious biologic liquids generated by the corpses (Tetanus-HBV-HCV)
associated to the presence of possible cutting and puncture injuries.
Transversal or organizational hazards due to
the nature of the work being performed and the task organization:
·
ergonomic-related hazards due to manual handling of
loads (corpses, caskets and prefabricated shoring elements);
·
ergonomic-related hazards due to odd working postures
(work performed inside the excavation trench) and the need to exert noticeable
physical effort during casket raising operations (weights handled range from
approximately 120 to 200 kilograms) and manual positioning of shoring element
(weights handled range from 80 to 100 kilograms);
·
general health hazards and physical discomfort due to
working environment conditions (work performed inside the excavation trench
during remains retrieval operations in the presence of stagnant water and mud
(adverse weather conditions);
·
psychological factors related to the item being
handled and to the scant social recognition for the tasks performed.
A safety hazard estimate has been furnished in
the general accident trend chapter. A specific accident hazard assessment has
not been performed in this work phase as operators, generally grouped as
“cemetery staff”, are directly involved in other phases of the work cycle
(interment and niche burials, niche exhumation, cremation).
Accident analysis has been performed employing
accident registers relating to the entire sector during the years from
1985 to 1996.
No environmental data was acquired with respect to personal
health and environmental hazards generated by inhalation of solder fumes.
Such hazards, though present as a result of the lack of local exhaust
ventilation devices, are limited as far as exposure frequency and duration are
concerned.
Hazard estimates due to noise generated
by the mechanical excavator are directly proportional to the time during which
the machinery is in use.
During this work sub-phase operators are generally
exposed to noise levels ranging from 80 to 85 dB(A) leq. In the majority of
cases, excavator use is limited to only a part of the entire work shift, hence
daily operator noise exposure is lower than the 80 dB(A) reference threshold.
As a conservative estimate, even allowing for daily
work shifts involving prolonged use of the mechanical excavator, should result
in operator exposure levels not exceeding 85 dB(A).
In general, the number of operators exposed to
excavator noise is limited. The excavator is governed by a single operator thus
no other staff are required to station in the immediate vicinity of the
machine.
The physical agent hazards (exposure to severe
weather conditions or extreme temperatures) are significant due to
organizational shortcomings generated by lack of or unsuitability of protective
clothing.
The entity of these hazards is not readily
quantifiable.
The biologic agent hazard due to the handling
of or contact with HBV-HCV potentially infected biologic materials is high in
cases of extraordinary exhumations due to the virus’ protracted environmental
survivability and contamination capability. The hazard is related to inadequate
PPE use and is particularly high during exhumed casket handling operations
(retrieval of casket from excavation and various casket transfer operations)
due to the presence of biologic liquids issuing from caskets.
Also present during programmed exhumation operations,
the Tetanus infection hazard is relatively low as a result of the extension of
mandatory prophylaxis procedures to this class of operators.
In 1990 and again in 1993, all cemetery staff were
subjected to blood test in order to assess exposure to biologic hazard (-
markers HBV (1990-1993) and HCV (1993)-).
Hazards related to odd working postures and physical
effort resulting from manual load handling, though not readily quantifiable,
remain relatively high as high workloads requiring physical effort may cause
rachis lesions, acute lumbago and scapulohumeral link lesions. High loads
affect the lumbar rachis during programmed exhumation operations involving
manual excavation, pick work and grappling tasks. The same tasks (excepting
grappling) and including casket raising operations are also performed during
extraordinary exhumations. These activities entail intense muscular exertion and
high cardirespiratory and locomotor system loads.
An analysis of working conditions identified numerous
instances of high mechanical overload of the entire locomotor apparatus and
especially of the lumbar rachis. Axial compression levels are frequently higher
than the first safeguard threshold (350 kgs) and occasionally exceed the
maximum tolerable threshold level (650 kgs).
Overload situations for operators performing
exhumation tasks depend on job task organization and on programmed and
extraordinary exhumation operations frequency (approximately 4,000/annum).
Acute and chronic spinal column pathologies were
studied using clinical functional rachis composition protocols established by
the EPM research unit (Ergonomia della Postura e del Movimento- Ergonomics
of Posture and Motion), Milan.
The protocols incorporated also various other clinical
tests, prevailingly X-ray tests, for more precise diagnosis definition of
specific cases.
A hazard estimate of the psychologic hardships is
not readily assessable due to the lack of specific studies.
Chapter 4 -
"Expected Injuries"
·
Sprains, contusions, fractures, puncture/cuts and
lacerated/contused wounds, crushing injuries, traumas caused by falls in
excavated trenches/graves, lesions caused by foreign objects, due to safety
hazards;
·
Lesions caused by foreign objects due to the
generalised presence of dust;
·
Hypoacusia and extra hearing effects caused by
exposure to noise;
·
Colds caused by working outdoors (exposure to physical
agents/weather conditions);
·
Complaints caused by exposure to solder fumes (Sn-Pb
solder operations);
·
Parenterally transmitted biologic agent infections
(HBV, HCV, and Tetanus);
·
Acute lumbosciaticas, muscular sprains,
cervical/dorsal/ lumbosacral spondyloarthropathies (SAPs) caused by handling of
heavy loads, physical exertion and odd working postures;
·
Psychological hardship
Report of detected injuries
The accident trend has been described in the general
chapter dealing with all accidents of the sector.
Data on injuries caused by
physical agents are not available.
Blood test results relating to biologic exposure
hazard (HBV and HCV markers) performed in the period 1990-1993 show that 46% of
cemetery staff tested positive to at least one marker. Studies performed on
other worker groups not particularly exposed to biologic hazard (e.g. municipal
police officers) produced positive results in 20% of cases.
During the time period 1990-1993 2 new HBV infection
cases were recorded for cemetery staff (out of 126 non-immune operators). Two
cases, which had tested negative to all markers in 1990, tested positive in
1993 to HBsAb and/or HBeAb and/or HBcAb markers.
Workers were subsequently subjected to hepatitis B
vaccinations.
Data refer to the entire cemetery staff group and
relate to all work phases performed (interment burial, niche burial,
exhumation, niche exhumation, cremation). Data aggregates may not be broken
down for each work phase for the previously mentioned reasons.
The following data results from the medical tests to
which cemeterial staff were subjected to by CEMOC (Centro di Medicina
Occupazionale e di Comunità-Centre for occupational and community medicine)
in 1990-1991 (280 operators) and 1992-1993 (257 operators), with respect to
injuries deriving from the handling of heavy loads, odd working postures and
high physical exertion.
Data generated by the two studies indicate a
particularly high percentage of individuals affected by acute lumbago. The
number of workers complaining of substantial episodes of acute lumbago in the
course of their working life totals 20%. Acute lumbago episodes that occurred
in the year prior to the visit totalled 8.5%.
The above data shows a prevalence of cervical SAP
(12.9%), dorsal SAP (11%) and lumbosacral SAP (25%). Data thus indicate that
cemeterial staff show a tendency to lumbosacral rachis complaints significantly
higher than workers not exposed to manual load handling hazards. Cervical and
dorsal rachis complaints are not particularly significant in this worker group.
A comparison of the above data with those relating to
sextons (transport phase) shows that acute lumbago hazards are significantly
higher for cemetery staff (intense, not protracted physical effort) whereas
cervical, dorsal and lumbosacral rachis pathology hazards, which are directly
related to the frequency of operations, are greater for operators performing
transfer tasks (sextons).
Chapter 5 -
"Preventive Measures"
In view of the critical situations described above, it
is clear that the top priority intervention to be addressed in this phase, is a
different work organization entailing more rational procedures aimed at
reducing hazards and operator hardships. The interventions could envisage
legislation and mortuary police regulations modifications. Not wishing to
undertake an in-depth analysis of the merits of the above suggestions, the
authors have decided to address those measures that have been or that may be
implemented within the framework of the current organisational structure.
Hazard reduction measures implemented relating to
excavation and remains retrieval operations have essentially involved issuing
operators with specific PPEs and initiating appropriate PPE use information and
training programmes. The following specific PPEs have been issued for
excavation operations: non-slip steel-capped footwear, leather hand gloves,
protective helmets. Remains retrieval operations specific PPEs include:
disposable waterproof coveralls, non-slip steel-capped footwear, hand and
forearm protective rubber gloves, facemask and protective helmets.
Chemical agent hazard reduction measures implemented
relating to zinc box soldering operations have involved procuring suitable
local exhaust ventilation devices.
Soiling hazard and hardship reduction measures
implemented relating to remains retrieval operations have involved procuring
vacuum pumps to remove stagnant water from the excavation trench.
Additional hardships generated by incomplete corpse
mineralization may be reduced in time as a result of the enforcement of union
regulations banning the use of zinc coffins inside the caskets, thus favouring
the completion of the decomposition process.
A quantitative reduction of biologic agent hazards
occurring during extraordinary exhumation operations, in view of the specific
hazards incurred, is achievable by strict enforcement of mortuary police
regulations. Such enforcement would permit extraordinary exhumations to be
performed solely pursuant to a magistrate’s order and consider transfers to
other burial sites only under absolutely exceptional circumstances.
The biologic agent hazard has been practically tackled
by issuing specific PPEs (see also above: remains retrieval specific PPEs) and
by initiating appropriate information and training programmes. As for the
corpse transport phase, all exhumed corpses are considered potentially
contaminated. Consequently instructions aimed at implementing specific
precautions and procedures have been issued.
A further biologic agent hazard prevention measure has
been the initiation of a Hepatitis B and Tetanus vaccination programme.
A mandatory requirement was issued with respect to the
establishment of a dedicated area fitted with running water, for cleaning and
decontamination of equipment and non-disposable PPEs.
The area is equipped with tool wash tanks and hand
basins fitted with appropriate cleaning aids (foot pedal/lever operator water
faucets, liquid detergent and disposable hand towel dispensers). Soaking tanks
for tool decontamination are also part of the equipment. Specific procedures
have been established covering frequency and methodologies to be implemented
during cleaning and decontamination of PPEs, tools and motor vehicles.
Work clothes/uniforms shall be laundered by the
Administration in centralised facilities.
Disposable PPEs generated during operations involving
contact with corpse materials shall no longer be treated as normal urban wastes
but as special wastes requiring dedicated “special waste containers”. Such
containers shall be stored in adequately ventilated premises with readily
washable, waterproof floor and wall lining materials.
With respect to manual load handling hazards, the
overall solution apt to tackle all issues is the total mechanization of exhumed
casket handling operations. This approach is feasible in theory in cases of
extraordinary exhumations as they involve handling of still, relatively whole,
caskets. The physical constraints imposed by current cemetery layouts
(restricted intra-tomb space), unfortunately do not favour immediate
implementation of mechanized casket handling systems).
Programmed exhumation operations envisage the handling
of corpses and sundry materials, excluding whole caskets. Consequently complete
mechanization appears as a nonfeasible option at the present time.
The sole measure implemented has been that of
declaring operators with certified rachis pathologies as temporary or
permanently non-fit for load handling duties(40 cases resulting from the 1990
examinations, i.e. 14.5% of operators; an additional 47 resulting from the 1992
examinations, i.e. 17.7% of operators). The data set refers to the entire
cemeterial staff worker group, which also performs other tasks in the work
cycle (interment and niche burials and exhumations, cremations).
Chapter 6 -
"Outsourcing"
These tasks are currently performed by cemeterial staff
employed by the Municipality.
Chapter 7 -
"Legislative References"
The hereunder-listed legislative and bibliographic
references relate to all the phases of the entire working cycle.
·
D.P.R.n°547/1955 – Workplace Accident Prevention Rules
·
D.Lgs.n°626/1994 and subsequent amendments –
Implementation of Directives n°89/391/EEC, n°89/654/EEC, n°89/655/EEC,
n°89/656/EEC, n°90/269/EEC, n°90/270/EEC, n°90/394/EEC and n°90/679/EEC
relating to the enhancement of worker safety and health
·
D.Lgs.n°475/1992 – Implementation of Council Directive
89/686/EEC dated 21/12/1989 relating to harmonization of member states’
legislation concerning personal protection equipment
·
D.P.R.n°459/1996 – Implementation regulations for
Directives n°89/392/EEC, n°91/368/EEC, n°93/44/EEC and n°93/68/EEC relating to
harmonization of member states’ legislation concerning Machinery
·
D.Lgs.n°494/1996 – Implementation of Directive
n°92/57/EEC relating to minimum safety and health requirements for temporary or
mobile construction sites
·
Municipal building and health regulations
·
D.P.R.n°285/1990 – Approval of Mortuary police
Regulations
·
Municipal Mortuary police Regulations
·
Law n°292 dated 05/03/1963 (Mandatory anti-tetanus
vaccination)
·
D.M. 26/04/1990 and D.M. 04/10/1991 (Identification of
risk groups for Hepatitis B virus vaccination)
·
D.P.R.n°203/1988 – Implementation of Directives
n°80/779/EEC, n°82/884/EEC, n°84/360/EEC and 85/203/EEC concerning air quality
regulations relating to specific pollution and polluting agents produced by
manufacturing facilities pursuant to Article 15, Law n°183 dated 16/04/1987
·
D.Lgs.n°22/1997 and subsequent amendments –
Implementation of Directives n°91/156/EEC concerning waste disposal,
n°91/689/EEC concerning hazardous wastes and n°94/62/EEC concerning packaging
and packaging wastes
·
Ministry of Health Circular issued 20/06/1983 n°57:
Formaldehyde Uses: hazards deriving from formaldehyde use.
·
D.Lgs.n°626/1994 Legislative Decree Application
Guidelines issued by Autonomous Regions and Provinces Coordination Agency,
October 1996
·
Ministry of Health – National AIDS Commission –
Guidelines to health operators for HIV infection control, Rome 06/09/1989
·
Law n°135 dated 05/06/1990 – Programme of urgent AIDS
prevention and counter measures
·
Ministry of Health Decree dated 28.9.1990 – Rules
concerning professional HIV infection protection in public and private
hospitals and health service facilities
·
NIOSH: "Work practices guide for manual
lifting", NIOSH Technical Report n°81-122. U.S., 1981
·
Proceedings of 1st National Seminar
“Occupational hazards in certain least developed tertiary sectors (solid urban
wastes, funeral services, supermarkets)” – SNOP – Milan, 23 May 1994
·
Proceedings of 1st Seminar “Public
Administration and Legislative Decree n°626” – SNOP – Turin, 30 & 31 May
1996
·
Occhipinti, Colombini, Cattaneo, Cervi, Grieco – Work
postures and rachis alterations in funeral service operators - Med. Lav. -
1988, 79: 6
·
American Conference of Governmental Industrial
Hygienists (ACGIH) - Threshold limit values for chemical substances
1995-96
·
International Agency for Research on Cancer (IARC) -
Monographs on the evaluation of carcinogenic risk to humans
Chapter 8 -
"Environmental hazards"
The sound pollution hazard that may result from the
use of mechanical excavators is negligible as cemeteries are generally located
in areas away from residential and industrial areas.
The environmental hazard resulting from the presence
of wastes generated by tasks involving contact with corpse materials (i.e.
disposable PPEs) has been tackled by treating such wastes as special wastes.
Said wastes are collected in suitable containers, sealed and incinerated or,
alternatively, subjected to a decontamination process involving autoclaves
prior to their final disposal.
The buried remnants of the zinc coffins represent a
specific environmental hazard.
An order has been formally issued for the removal of
all zinc scraps from the plots. Scraps shall be cleaned, decontaminated and
sent off for final disposal.
To that end, a paved and suitably drained area has
been created for zinc remnants cleaning and decontamination operations. The
area is also used as temporary storage of remnants prior to their collection by
approved contractors.
1. WORK CYCLE PHASE : NICHE EXHUMATION
2. INAIL CODE : 93.03
3. HAZARD FACTOR :
4. HAZARD CODE :
5. Num. of EMPLOYEES : 196 CEMETERIAL STAFF
Chapter 1 -
"Work Phase Description"
Niche exhumation involves extracting the casket from
the above or below ground niche structures (for a detailed niche structure
description, see also “Niche Burial” work phase description).
Niche exhumations are normally performed after 30
years have elapsed since burial. Exhumations may be required before that lapse
of time pursuant to a magistrate’s order or to a request for transfer to
another burial site.
The current work phase describes and groups various
sub-phases: niche opening, casket
extraction, casket handling and opening, retrieval of remains.
Niche opening involves the manual removal of the
marble slab (approximate weight 30 kilograms) using a chisel or other tool to
lever out the slab. The sealing brickwork is demolished using mallet and
chisels.
Two operators using a wooden roller as an aid extract
the casket from the niche. Casket handling operations vary depending on the
niche rank level within the above ground structure.
For a detailed description see also “Niche Burial”
work phase description.
The casket is placed on the ground, the wooden lid is
removed and the inner zinc coffin is ripped open using grappling hooks.
The remains are manually retrieved by operators
wearing protective rubber gloves. Bone tissue is brushed clean and placed in a zinc
box prior to being transferred to the ossuary. The zinc box lid is sealed by
tin/lead solder in cases of remains to be transferred from the cemetery. The
soldering operation is performed either outdoors or in a specific room not
fitted with exhaust ventilation systems.
Programmed below ground niche exhumations frequently
involve work performed in flooded niches on badly deteriorated caskets and
coffins. Rainwater seepages, collected by the niches’ concrete walls are
responsible for casket and coffin deterioration.
In such cases casket opening and remains retrieval
operations are performed under particularly difficult and extremely dirty
working conditions.
The operator may use a vacuum pump to remove stagnant
water and mud. Should a pump not be available, he must resort to using a normal
bucket.
Remnants of the exhumation operations such as wood,
zinc coffins, clothing and tomb decorations are disposed of outdoors, without
any containment system, in the nearby areas surrounding the work site.
Extraordinary exhumations generally involve the same
procedures as those employed in the programmed ones excepting that the casket
opening and remains retrieval phases are not performed. The exhumed casket is
transferred to an appropriate storage area using a motor vehicle. In the
storage area, the wooden casket parts are removed and the inner zinc coffin is
placed in another wood casket prior to transfer to the morgue or to other
burial site.
Extraordinary exhumations, unlike programmed ones, may
involve possible contact with potentially contaminated biologic materials.
Operators are exposed to contamination hazards that
are inversely proportional to the corpses’ age (months or years since burial
took place).
No specific procedures indicating frequency and
methods, have been established for tool, equipment and PPEs cleaning
operations. Disposable PPEs are disposed of in ordinary solid urban waste
collection containers.
Work clothes are washed by and at the operator’s
expense.
Chapter 2 -
"Equipment and machinery"
Equipment:
·
Movable ladders fitted with wheels;
·
Portable ladders for access to underground niches;
·
Movable platforms and/or fixed scaffolding;
·
Trolleys;
·
Block and tackle or other manual hoisting devices;
·
Casket securing ropes, straps and chains;
·
Wooden rollers;
·
Remains collection trays;
·
Zinc boxes;
·
Sn-Pb soldering equipment;
Tools:
·
Chisels;
·
Mallets;
·
Grappling hooks;
·
Brushes.
Machines:
·
Casket hoisting devices;
·
Motor vehicle/vans.
Equipment and tools currently in use have not been
specifically designed for this use and have been modified on the spot. Hence
equipment and tools are not suited to the tasks to be performed and are often
is an unsatisfactory state of repair.
With respect to the scaffolding, assembly is often
incomplete, not all structural elements and stay bars being fitted and
authorised assembly configurations are not implemented. Lack of sufficient
space imposes significant scaffolding assembly constraints, affecting
scaffolding stability and hence impacting also on operator safe working
conditions. Scaffolding structures are modified on the spur of the moment
without adequate design considerations.
The various types of casket hoisting devices (manual
or power assisted, mechanical or hydraulic) fall within the class of load
hoisting devices which must be type approved by ISPESL. All hoisting devices
have been type approved and subjected to scheduled tests.
Type approval and scheduled testing do not ensure
adequate safe working levels for all operators involved in their use as type
approval/tests only relate to the operation of the hoisting systems and do not
consider related safety issues such as the working conditions outlined above.
Machinery type falls within the provisions of
D.P.R.n°459/1996 (Machine Directive). All new machinery procured shall abide by
the provisions relating to basic accident prevention requisites as envisaged by
Enclosure 1 of the regulations (EC markings).
The wheeled steel ladders are fitted with a terminal
working stage. Many ladders are insufficiently stable and resilient, not all
are fitted with the prescribed safety devices such as handrail, safety railing
along three sides of the working stage, toe board, upper and intermediate stay
rod. The working stage of some ladders is not sufficiently broad to allow safe
working conditions and lack adequate space for tools. When these ladders are
used for exhumations from the intermediate niche ranks, operators are forced to
work while standing on the rungs or to bend over while standing on the terminal
stage. Ladders are also used by mourners to access the niches and consequently
are all the same length so as to allow visitor access to the highest niche
ranks.
Portable ladders are essentially employed in
exhumations from below ground niche structures. Such ladders are unsuited to
the task because of their lack of securing devices, insufficient length (ladder
length too short, does not protrude sufficiently above ground level) and are
fitted with circular-section rungs instead of flat ones, thus reducing operator
stability.
Zinc boxes and lids are coarsely fabricated presenting
sharp and jagged edges.
Chapter 3 -
"Hazard factor"
Safety hazards due to the physical
features of the working environment, task organisation, equipment, machinery
and tools:
·
Crushing injuries to operator hands due to
slippage/fall of the niche closure blocks during handling operations;
·
Falling hazard from ladders;
·
Falling hazard when working on platforms and
scaffolding;
·
Falling hazard when working on casket lifting devices;
·
Falling hazard in the below ground niche structures
(depth up to 4-5 metres;
·
Falling, impact or crushing hazard due to handling of
heavy loads under conditions of precarious operator balance especially during
casket extraction from above/below ground niche structures and subsequent
handling;
·
Crushing hazard due to casket slippage/fall;
·
Cutting lesion hazards occur when handling sharp-edged
objects such as coarsely fabricated zinc boxes and lids, grappling hooks, wood
splinters, zinc coffin remnants, bone tissue remains);
·
Mechanical and electrical shock hazards deriving from
use of casket hoisting devices;
·
General injury hazard deriving from the use of hand
tools, equipment and machinery.
Personal health and environmental hazards due to
chemical, physical and biologic agents:
·
Chemical agent hazard caused by inhalation of solder
fumes due to lack of adequate local exhaust ventilation devices;
·
Physical agent hazard caused by exposure to inclement
and extreme weather/temperature conditions for all activities performed
outdoors;
·
Possible biologic agent hazard during extraordinary
niche exhumations caused by operators possibly coming into contact with and
handling items and surfaces soiled by potentially contaminated biologic liquids
(HBV-HCV) as a result of zinc coffin leakages. The hazard is associated to
possible cut and puncture lesions;
·
Biologic agent hazard due to contact with and handling
items and surfaces which may be smeared with soil (Tetanus) associated to
possible cut and puncture lesions;
Transversal or organizational hazards due to
the nature of the work being performed and task organisation:
·
ergonomic-related hazards due to manual handling of
loads with special reference to caskets which may way up to 200 kilograms;
·
ergonomic-related hazards due to odd working postures
and the need to exert noticeable physical effort during casket niche retrieval
operations under precarious operator balance conditions (operators working from
casket hoisting devices, ladders, platforms or inside the below ground vault
structures;
·
general health hazards and physical discomfort due to
working environment conditions inside the below ground niche structures during
casket and remains retrieval operations in the presence of stagnant water and
mud;
·
Psychological factors related to the item being
handled and to the scant social recognition for the tasks performed.
A safety hazard estimate is furnished in the
general accident trend chapter. No specific safety hazard analysis was
performed for this work phase as operators, generally grouped as “cemetery
staff”, are also directly involved in other phases of the work cycle (burials,
grave and niche exhumations, cremation).
The accident analysis has been performed employing
accident registers relating to the entire sector during the years from
1985 to 1996.
No environmental data was acquired with respect to personal
health and environmental hazards generated by inhalation of solder fumes.
Such hazards, though present as a result of the lack of local exhaust
ventilation devices, are limited as far as exposure frequency and duration are
concerned.
A personal hygiene-environmental estimate of
hazards due to exposure to extreme weather and temperature conditions
is significant due to organizational shortfalls leading to lack
of/unsuitability of protective clothing. The above hazards may not be readily
quantified.
The biologic agent hazard due to the handling
of or contact with HBV-HCV potentially infected biologic materials during
extraordinary exhumations is high due to the virus’ protracted environmental
survivability and contamination capability.
The hazard is related to inadequate PPE use and is
particularly high in during exhumed casket handling operations (casket
retrieval from niche and various transfer phases) due to the possible leakage
of biologic liquids from the casket. This possibility is less frequent than the
interment burial exhumations, because of the combined use of casket/coffin
(wood and zinc) in this type of exhumations.
The Tetanus infection hazard, also present during
programmed below ground niche exhumation operations, is relatively low as a
result of the extension of mandatory prophylaxis procedures to this class of
operators.
In 1990 and again in 1993, all cemetery staff were
subjected to blood test in order to assess exposure to biologic hazard (-
markers HBV (1990-1993) and HCV (1993)-).
Hazards related to odd working postures and physical
effort because of manual load handling, though not readily quantifiable, remain
relatively high as high workloads requiring physical effort may cause rachis
lesions, acute lumbago and scapulohumeral link lesions. Casket retrieval and
handling operations from above and below ground niche structures during
programmed and extraordinary niche exhumations involve high mechanical bone and
joints loading, especially of the lumbar rachis.
The same operations performed during extraordinary
below ground niche exhumations involve extreme physical exertion with high
locomotor and cardiorespiratory apparatus loads.
A study of the working conditions has identified
numerous instances of high mechanical overload of the entire locomotor
apparatus, especially of the lumbar rachis. Lumbar rachis axial compression
levels are frequently higher than the first safeguard threshold (350 kgs) and
occasionally exceed the maximum tolerable threshold level (650 kgs).
Operator overload situations vary depending on the
type of exhumation (niche rank height above floor level in above ground
structures, below ground niche exhumations, extraordinary below ground niche
exhumations, stairways), daily job task organization and frequency of
programmed and extraordinary exhumations (approximately 1000/year).
Acute and chronic spinal column pathologies were
studied using clinical functional rachis composition protocols established by
the EPM research unit (Ergonomia della Postura e del Movimento-
Ergonomics of Posture and Motion), Milan.
The protocols incorporated also various other clinical
tests, prevailingly X-ray tests, for more precise diagnosis definition of
specific cases.
A hazard estimate of the psychologic hardships is
not readily assessable due to the lack of specific studies.
Chapter 4 -
"Expected Injuries"
·
Sprains, contusions, fractures, puncture/cuts and
lacerated/contused wounds, crushing injuries, traumas caused by falls, due to
safety hazards;
·
Colds caused by working outdoors (exposure to physical
agents/weather conditions);
·
Exposure to metal-generated fumes (Sn-Pb solder
operations);
·
Parenterally transmitted biologic agent infections
(HBV, HCV, and Tetanus);
·
Acute lumbosciaticas, muscular sprains, cervical/dorsal/
lumbosacral spondyloarthropathies (SAPs) caused by handling of heavy loads and
to odd working postures;
·
Psychological hardship.
Report of detected injuries
The accident trend has been described in the general
chapter dealing with all accidents of the sector.
Data on injuries caused by
physical agents are not available.
Blood test results relating to biologic exposure
hazard (HBV and HCV markers) performed in the period 1990-1993 show that 46% of
cemetery staff tested positive to at least one marker. Studies performed on
other worker groups not particularly exposed to biologic hazard (e.g. municipal
police officers) produced positive results in 20% of cases.
During the time period 1990-1993 2 new HBV infection
cases were recorded for cemetery staff (out of 126 non-immune operators). Two
cases, which had tested negative to all markers in 1990, tested positive in
1993 to HBsAb and/or HBeAb and/or HBcAb markers.
Workers were subsequently subjected to hepatitis B
vaccinations.
Data refer to the entire cemetery staff group and
relate to all work phases performed (interment burial, niche burial,
exhumation, niche exhumation, cremation). Data aggregates may not be broken
down for each work phase for the previously mentioned reasons.
The following data results from the medical tests to
which cemeterial staff were subjected to by CEMOC (Centro di Medicina
Occupazionale e di Comunità-Centre for occupational and community medicine)
in 1990-1991 (280 operators) and 1992-1993 (257 operators), with respect to injuries
deriving from the handling of heavy loads, odd working postures and high
physical exertion.
Data generated by the two studies indicate a
particularly high percentage of individuals affected by acute lumbago. The
number of workers complaining of substantial episodes of acute lumbago in the
course of their working life totals 20%. Acute lumbago episodes that occurred
in the year prior to the visit totalled 8.5%.
The above data shows a prevalence of cervical SAP
(12.9%), dorsal SAP (11%) and lumbosacral SAP (25%). Data thus indicates that
cemeterial staff show a tendency to lumbosacral rachis complaints significantly
higher than workers not exposed to manual load handling hazards. Cervical and
dorsal rachis complaints are not particularly significant in this worker group.
A comparison of the above data with those relating to
sextons (transport phase) shows that acute lumbago hazards are significantly
higher for cemetery staff (intense, not protracted physical effort) whereas
cervical, dorsal and lumbosacral rachis pathology hazards, which are directly
related to the frequency of operations, are greater for operators performing
transfer tasks (sextons).
Chapter 5 -
"Preventive Measures"
In view of the critical situations described in this
phase, it is obvious that the sole preventive measure apt to offer an overall
solution is that of tasking the municipality’s design teams to produce suitable
designs for above and below ground niche burial structures.
With respect to multi-storey above ground niche burial
structures, the measures could, for example, envisage structures built so as to
make all niche ranks accessible to suitable casket hoisting devices. In so
doing the need for movable platforms and scaffolding would be done away with;
structure design could also envisage suitably sized lifts and hoists, for
casket access to the various storeys; close to the niches, suitable manoeuvring
areas and repositioning of tomb decorations could be envisaged in order to
ensure easier casket handling and niche insertion.
With respect to below ground niche burial structures,
the design should always envisage suitably sized vestibules apt to ensure safe
operator working conditions or, preferably, to allow the use of fully
mechanized exhumed casket handling/positioning systems.
Not wishing to undertake an in-depth analysis of the
merits of the above suggestions, the authors have decided to address those
measures that have been or that may be implemented within the framework of the
current organisational structure.
The hazard reduction measures related to the removal
of the niche closure slabs and the casket extraction and handling operations,
have involved the proposal to employ suitable suction cup-equipped carrying
handles for the slabs (hand/finger crushing injuries), the issue of suitable
PPEs and the initiation of an operator information and training programme.
Suitable PPEs have been issued for exhumation
operations: steel-capped footwear, leather hand gloves, protective helmet for
above ground programmed niche exhumations; waterproof or steel-capped footwear,
waterproof coveralls, leather hand gloves, protective helmets and rubber
gauntlets for remains retrieval operations in vault niche exhumations.
With respect to chemical agent hazards relating to
zinc box soldering activities, measures implemented have involved procuring
suitable local exhaust ventilation devices.
The use of specific PPEs and vacuum pumps to remove
stagnant water have been ordered as measures aimed at reducing operator
hardship and soiling during below ground extraordinary niche exhumations and
remains retrieval operations.
A quantitative reduction of biologic agent hazards
occurring during extraordinary niche exhumation operations, in view of the
specific hazards incurred, is achievable by strict enforcement of mortuary
police regulations. Such enforcement would permit extraordinary exhumations to
be performed solely pursuant to a magistrate’s order and consider transfers to
other burial sites only under absolutely exceptional circumstances.
The biologic agent hazard has been practically tackled
by issuing specific PPEs (see also above: remains retrieval specific PPEs) and
by initiating appropriate information and training programmes. As for the
corpse transport phase, all exhumed corpses are considered potentially
contaminated. Consequently instructions aimed at implementing specific
precautions and procedures have been issued.
A further biologic agent hazard prevention measure has
been the initiation of a Hepatitis B and Tetanus vaccination programme.
Formal procedures covering frequency and methods, have
been established relating to PPE, tools and equipment cleaning and
decontamination processes.
Work clothes/uniforms shall be laundered by the
Administration in centralised facilities.
Disposable PPEs shall no longer be treated as normal
urban wastes but as special wastes requiring dedicated “special waste
containers”. Such containers shall be stored in adequately ventilated premises
with readily washable, waterproof floor and wall lining materials.
The mechanisation of all operations involving exhumed
casket transfer and handling is the sole measure apt to reduce all manual load
handling hazards.
In no way reducing the importance of the previously
mentioned issues concerning the need to review the physical features of current
cemetery layouts, a procurement programme has been currently initiated for
casket hoists of more suitable size and technical performance. This programme
shall allow the elimination of casket handling operations involving the use of
portable platforms and scaffolding.
The newly procured
equipment shall also eliminate all safety hazards due to the unsuitability of
previous equipment used in casket niche retrieval operations (portable ladders,
hoists not fitted with adequate casket securing devices, odd working postures,
etc.).
Due to the
impossibility of using mechanised handling systems in below ground niche burial
structures and in anticipation of definite solutions concerning the total
automation of all load handling tasks, a measure has been implemented. The
measure aims at declaring workers either temporarily or permanently unsuited to
these tasks in cases of certified rachis pathologies. During the 1990
examinations, 40 such pathologies were reported, i.e.14.5% of all operators: a
further 47 were reported during the 1992 examinations, i.e. 17.7% of all
operators).
Please note that,
like in previously mentioned cases, data refer to the entire “cemetery staff”
group. Group members are also directly involved in other work cycle phases such
as interment and niche burials and exhumations, cremations.
Chapter 6 -
"Outsourcing"
Normally this work
phase is not subject to outsourcing agreements. At times the work is performed
by employees of private companies.
Chapter 7 -
"Legislative References"
The hereunder-listed legislative and bibliographic
references relate to all the phases of the entire working cycle.
·
D.P.R.n°547/1955 – Workplace Accident Prevention Rules
·
D.Lgs.n°626/1994 and subsequent amendments –
Implementation of Directives n°89/391/EEC, n°89/654/EEC, n°89/655/EEC,
n°89/656/EEC, n°90/269/EEC, n°90/270/EEC, n°90/394/EEC and n°90/679/EEC
relating to the enhancement of worker safety and health
·
D.Lgs.n°475/1992 – Implementation of Council Directive
89/686/EEC dated 21/12/1989 relating to harmonization of member states’
legislation concerning personal protection equipment
·
D.P.R.n°459/1996 – Implementation regulations for
Directives n°89/392/EEC, n°91/368/EEC, n°93/44/EEC and n°93/68/EEC relating to
harmonization of member states’ legislation concerning Machinery
·
D.Lgs.n°494/1996 – Implementation of Directive
n°92/57/EEC relating to minimum safety and health requirements for temporary or
mobile construction sites
·
Municipal building and health regulations
·
D.P.R.n°285/1990 – Approval of Mortuary police
Regulations
·
Municipal Mortuary police Regulations
·
Law n°292 dated 05/03/1963 (Mandatory anti-tetanus
vaccination)
·
D.M. 26/04/1990 and D.M. 04/10/1991 (Identification of
risk groups for Hepatitis B virus vaccination)
·
D.P.R.n°203/1988 – Implementation of Directives
n°80/779/EEC, n°82/884/EEC, n°84/360/EEC and 85/203/EEC concerning air quality
regulations relating to specific pollution and polluting agents produced by
manufacturing facilities pursuant to Article 15, Law n°183 dated 16/04/1987
·
D.Lgs.n°22/1997 and subsequent amendments –
Implementation of Directives n°91/156/EEC concerning waste disposal,
n°91/689/EEC concerning hazardous wastes and n°94/62/EEC concerning packaging
and packaging wastes
·
Ministry of Health Circular issued 20/06/1983 n°57:
Formaldehyde Uses: hazards deriving from formaldehyde use.
·
D.Lgs.n°626/1994 Legislative Decree Application
Guidelines issued by Autonomous Regions and Provinces Coordination Agency,
October 1996
·
Ministry of Health – National AIDS Commission –
Guidelines to health operators for HIV infection control, Rome 06/09/1989
·
Law n°135 dated 05/06/1990 – Programme of urgent AIDS
prevention and counter measures
·
Ministry of Health Decree dated 28.9.1990 – Rules
concerning professional HIV infection protection in public and private
hospitals and health service facilities
·
NIOSH: "Work practices guide for manual
lifting", NIOSH Technical Report n°81-122. U.S., 1981
·
Proceedings of 1st National Seminar
“Occupational hazards in certain least developed tertiary sectors (solid urban
wastes, funeral services, supermarkets)” – SNOP – Milan, 23 May 1994
·
Proceedings of 1st Seminar “Public Administration
and Legislative Decree n°626” – SNOP – Turin, 30 & 31 May 1996
·
Occhipinti, Colombini, Cattaneo, Cervi, Grieco – Work
postures and rachis alterations in funeral service operators - Med. Lav. -
1988, 79: 6
·
American Conference of Governmental Industrial
Hygienists (ACGIH) - Threshold limit values for chemical substances 1995-96
·
International Agency for Research on Cancer (IARC) -
Monographs on the evaluation of carcinogenic risk to humans.
Chapter 8 -
"Environmental hazards"
The environmental hazard resulting from the presence
of wastes generated by tasks involving contact with corpse materials (i.e.
disposable PPEs) has been tackled by treating such wastes as special wastes.
Said wastes are collected in suitable containers, sealed and incinerated or,
alternatively, subjected to a decontamination process involving autoclaves
prior to their final disposal.
Environmental hazards generated by the indiscriminate
dispersion of exhumation operation by-products (wood fragments, clothing,
funerary decorations) have been tackled by the installation of covered and
waterproof collection bins for their temporary storage. By-products shall be
collected and disposed of by approved contractors.
Environmental hazards generated by the dispersion of
exhumed zinc coffins have been tackled by issuing suitable collection,
cleaning, decontamination and disposal procedures.
To that end, a paved and suitably drained area has
been created for zinc scrap cleaning and temporary storage. Approved
contractors subsequently collect zinc scrap.