Hospital Safety Index B
Hospital Safety Index B
Determine whether or not the generator(s) are fundtional and based on this, the most
appropriate location for them. For outdoor generators, evaluators should inspect the
casing and any form of protective covering. Depending on the location, the potential for
flood damage, vandalism or theft of generators should be evaluated. The vulnerability of
generators to strong winds, seismic forces or proximity to adjacent structures that might fall Calendar/schedule of maitenance, any
and cause damage should also be evaluated. Drainage at the generator’s location should existing policy on maitenance and safety,
be evaluated (i.e. how run-off is managed if the equipment is outside and, if placed electrical drawings.
indoors, whether there are floor drains or openings. Visual inspection can be
supplemented by information from maintenance and inspection records.
Ascertain whether the generator is well-anchored and braced, without the possibility of
falling or shifting. This involves inspection of supports for the generator in the ground or
flooring and the condition and type of connections (i.e. checking for corrosion or other
deterioration). If springs are used to avoid vibration and noise, they must be well-anchored
since these devices amplify seismic waves. The connections for fuel lines and electricity
cables must be flexible to avoid breakage should the generator shift or fall. The lower that
these heavy pieces of equipment are placed in the structure, the less the chance that they
will fall over, but they may still slide.
There should be easy and safe access to the equipment. The possibility that doors or
other exits could be blocked by cables or fuel lines if the equipment shifts or falls should
be considered.
Check the availability and storage of fuel, confirming that supplementary tanks are
always full and are located so that fuel can reach the generator by gravity rather than
relying on pumping at the time of an emergency. Inspect the physical condition of the fuel
tanks and electrical and hose connections. Batteries can be highly dangerous, particularly
when charging, and are prone to serious risk in an earthquake, wind, flood or fire event.
The condition of the batteries and replacement batteries for the starter should also be
inspected to ensure that they cannot be damaged. Check for earthing.
Check the condition of the electrical networks throughout the hospital. These
should be protected from flooding and fire, and in earthquake-prone zones and areas of
high winds they should be anchored and channelled through cable racks or conduits that Electrical as-built plans: type of materials
protect them from twisting, breaking or from general deterioration. When cables travel used, anchorage power lines secured
along roofs that empty through drainpipes or gargoyles, the cables should be positioned
above the overflow level. When the building has a basement or other areas that are likely
to flood, evaluators should inspect the location of sockets, large switchgear or isolators
and whether they need to be raised. In earthquake-prone areas, when electricity lines
pass from building to building or over expansion joints in the same building, these joints
should have sufficient flexibility to accommodate the relative movements during
earthquakes.
An important element is the separation of electrical networks from other systems that
they may affect – such as water supply or sewage systems. If they are in close proximity to
protective systems for electrical atmospheric discharge, consideration should be given to
metal shielding and additional electrical earthing and bonding.
Inspect the position of outside power lines in relation to features on the hospital grounds.
All power lines on hospital grounds should be placed underground to protect them from
damage and flying debris during high winds. If electricity poles are located on hospital
grounds, evaluators should ensure that transformers are well anchored. The possibility
that poles could fall because of soil liquefaction, wind or other hazards should be
considered. Tree branches can break or interfere with above-ground power lines; likewise,
tree roots can interfere with buried power lines.
42. Redundant system for the local electric power supply There are more than two (2)
No redundant power There are two (2) entrances for the
LEFT BLANK IF NOT APPLICABLE entrances for the local power
supply local power supply.
supply
The failure of local power supplies can cause a “domino” effect in the hospital so that
successive outages can occur. Evaluators should confirm that there is redundancy in the
power supply, without counting on the hospital’s own emergency power-generating
system. If possible, there should be more than one power supply entrance to the hospital
from the local power supply, and additional entrances should be from other circuits that
are independent of the internal emergency system.
Ensure that both internal and external lighting are operational and correctly sectioned
Interview maintenance staff to determine whether there is sufficient stock of lighting
supplies (e.g. flashlights, head-torches, batteries and light bulbs in case of light failure in a
disaster). Ensure that emergency lighting systems are adequate for the level and type of
use of an area, especially on stairs and walkways, in corridors and in the critical medical
and nonmedical areas of the hospital. Lighting should be clear of plants or other
vegetation which could pose a physical risk or affect performance. Check maintenance
and inspection records.
46. External electrical systems installed for hospital usage Electrical sub-stations (for major Electrical sub-stations (for major
hospital with demand >750kVA) or hospital with demand >750kVA) or
No electrical sub-stations transformers installed in transformers installed in
for major hospital with inappropriate location (prone to appropriate location (not prone to
demand >750kVA or flooding, close to vegetation), flooding, not close to vegetation),
IF THERE ARE NO EXTERNAL ELECTRICAL SUBSTATION, LEAVE BOXES BLANK
transformers for minor partially protected and vulnerable well protected (enclosed, labelled,
hospitals. to damages, and does not provide anchored and supported), and
enough power in an provide enough power in an
emergency/disaster. emergency or disaster
The condition and functionality of the telecommunications equipment and cables in the
hospital should be checked. Verify that all telecommunications equipment is well-protected
and anchored for increased security. Outside cables on the hospital grounds should be in
underground conduits to protect them from damage during high winds and other hazards.
Telephone exchange consoles, computers and servers should have anchors to prevent
tipping or sliding. In areas which require anchoring and/or bracing, the quality of anchors
and braces should be assessed. There should be adequate conduit tubing for cables to
prevent them from deteriorating. Mobile telephone towers in the vicinity of the hospital
should have back-up generators. Visual inspection can be supplemented by information
from maintenance and inspection records.
External telecommunications
External communications cause no
Site in poor condition or systems occasionally cause
52. Effect of external telecommunications systems on hospital communications interference with hospital
vulnerable to hazards. interference with hospital
communications
communications
Check the condition and safety of the sites for the telephone exchange and computer
network server. Entry ducts should have fire barriers, doors must open completely and
away from the room, suspended ceilings that can fall easily should be avoided, and no
pipelines should be co-located here. Doors and windows should close tightly to keep out
wind and water, and doors should have moderate fireproofing. Lighting should be
adequate for personnel to work, but the equipment should be protected from direct
sunlight. To avoid water damage, water filtration apparatus, toilets and bathrooms should
not be on floors above the equipment. Availability of drawing, maintenance and
Telecommunications centres must be placed away from facades. Cables and wires inspection record/report.
should be encased in conduit tubing to prevent deterioration and all equipment should be
anchored according to its weight and dimensions.Verify that installations are not subject to
explosion in case of sparks.
Check distance from electromagnetic interference such as imaging equipment,
transformers, motors and radio transmission systems.
Access to the telecommunications centres must be restricted and controlled. Visual
inspection can be supplemented by information from maintenance and inspection records.
Battery storage areas should be ventilated separately. Batteries should be sealed. If
other types of batteries are used (non-sealed batteries) for reasons of economy, these
should not be placed in the same location as the telephone switchboard, and their location
must have the following specifications:
• It should be away from equipment and the operator, and antacid treatment must be
applied
to the floors and walls up to 1500 mm above the finished floor level.
• It should not have an outlet or interruptor placed inside, outfitted with shatterproof lamps,
and
doors should have moderate fireproofing. The battery should be protected from direct
sunlight.
• There should be a sink with a salt-water battery.
Evaluators should verify that water tanks have a permanent reserve that is sufficient to
provide water for at least 72 hours in accordance with Uniform Plumbing Code of the
Philippines, in addition to a water reserve for fires (it is advised to provide at least 300 litres Availability of drawing, plans and
daily per bed). Evaluators should also verify that water storage is sufficient to satisfy specification, maintenance and inspection
essential services and has the capacity to store 1,172 liters per bed (daily demand for records on testing of tank functionality.
water supply intended for domestic and other hospital uses. This could be ascertained
from service and maintenance records. Typically, water storage for hospitals is in cisterns
or reserve tanks on the ground floor and elevated tanks. It is important to check locations
in the hospital that are not served by the main water system. If wells, boreholes or aquifers
exist on hospital grounds, the percentage of water supply they provide and whether they
are used regularly or as reserves should be ascertained.
The hospital must be completely protected against fire, since this type of hazard can stop
services in a hospital when they are most needed. Hospitals are considered to be Availability of fire drawings and maintenance
buildings which are extremely difficult to evacuate; therefore, the most important aspect of records, fire plans, policies and procedures,
fire safety is to have the best means of prevention and protection in place. visible means of evacuation.
Passive fire protection measures will be based on the combustible level of each area,
the level of compartmentalization, the use of incombustible material, fireproof doors,
firewalls, and the location of doors and windows in respect to other buildings and other
areas. The main objective should be to prevent fires from starting and, if a fire starts, to
prevent its spread in order to avoid the total evacuation of the building.
Determine whether the hospital design incorporates firewalls, doors and designated
escape routes, which provide a high level of safety. Review the fire protection measures in
areas at highest risk of fire, including boiler rooms, fuel tank storage, medical gases,
electrical panels, electrical switch rooms, pharmacy etc from maintenance records, the
facility’s fire plans, and policies and procedures.
Partial evacuations should be prioritized, preferably to an area on the same level
(horizontal evacuation), and as a last resort to other floors (vertical evacuation). To enable
this, it is important to have a building structure that limits the risk of the fire spreading both
Fire or Smoke Detection System is
63. Fire/smoke detection systems
No system has been Fire or Smoke Detection alarm installed, well-maintained, and
installed. system installed but not tested. tested at least twice a year with
maintenance and testing records.
Check that: Availability of fire drawings and plans,
- Building is fully protected with fire detection & alarm system (smoke detectors, pull testing and maintenance record.
stations, & alarm bell)
- System is addresible (visual & audible)
- System is properly working or operational
- Inspection, Testin and maintenance record is available and updated
- Drawings, Operation & Maintenance manuals is available
66. Emergency maintenance and restoration of the fire protection system Operation manual and preventive Operation manual and preventive
maintenance records and maintenance records and
No maintenance records emergency procedures for emergency procedures for Fire
and no personnel with maintaining Fire Protection System Protection System in
required or relevant in emergency/disaster situations emergency/disaster situations and
training. are not updated and personnel personnel have been trained to
have no required or relevant maintain systems in both routine
training. and emergency /disaster situations
MODULE
3.3.5 3: Nonstructural
Waste management systems safety
MODULE
68. 3: Nonstructural
Safety of hazardous wastewater andsafety
liquid waste (Health Care Waste)
Criteria for Evaluation:
- Separate collection of hazardous wastewater in accordance to Clean Water Act R.A. Hazardous waste are pre-treated
Hazardous waste are not
9275. n/a either through neutralization tank
pre-treated.
- Availability of proper records and maintenance or thermal treatment
The characteristics of each of the wastewater systems define the form of disposal and
whether the waste would be in conventional form or in a form that can be removed by the
authorized entity. The responsible division of the hospital (e.g. engineering or
maintenance) should ensure that hazardous wastewater does not drain into the public
sewage system and does not contaminate drinking water.
Dangerous residual liquids can be divided into two groups: those that are pre-treated
and which can then be discharged into the sanitation system, and those which cannot be Availability of proper records and
discharged and need manual removal by an authorized entity. In both cases the hospital maintenance, availability of drawings,
Manila Water do the treatments
must ensure the standards, and the system must be assessed according to the inspection record, operational and
maintenance manual, interview Pollution needed
established standards of the country.
Liquids that can be discharged into the sanitation system through pre-treatment include Control Officer (PCO).
oils and fats, explosive mixtures, colourings, corrosive waste and some radioactive
matters, depending on the level of concentration.
Liquid waste from operating rooms may be infectious if it has come into contact with
liquid or
semi-liquid substances such as blood, semen, vaginal secretions, saliva, purulent
secretions and placenta or cerebrospinal, synovial, pleural, peritoneal or amniotic fluid.
Other liquids that do not contain concentrations of drugs or radioactive substances can be
handled as nonhazardous liquids and may be discharged to community sewer systems.
The hospital sanitation system will track where the substances are discharged once
treated in order to obtain a sample for analysis to verify the safety of landfill material to the
environment or to determine possible action to ensure safety of the environment.
MODULE
3.3.6 3: Nonstructural
Fuel storage safety and diesel)
systems (e.g. gas, gasoline,
Sufficient for 24 hours or
Sufficient for more than 24 hours Guaranteed to cover at least 72
72. Fuel reserves less, or fuel tank does not
but less than 72 hours hours.
exist
Verify that the hospital has fuel supplies or storage tanks of adequate size and
safety.Verify the level of demand for fuel at the maximum capacity of the hospital, taking
into account the additional capacity required to respond to emergencies and disasters.
Check the size of reserve tanks to ensure that the reserve is sufficient to meet the demand Availability of fuel consumption records
for each type of fuel at the maximum capacity of the hospital for at least 72 hours with the (hourly consumption of fuel).
high increase in service demand in emergencies and disasters. Observe how much fuel is
available at the time of the assessment. Determine how often fuels are delivered and
whether supplies can be delivered effectively during emergencies or following disasters,
especially if access and road networks have been compromised. Hospitals that do not
have fuel reserves or fuel tanks and provided with fuel from petrol stations on a contractual
basis, for instance, should be given a low rating.
The fuels used for the generators, hospital boilers and other services may differ, so it is
important that all fuel tanks are very clearly labelled and, where possible, stored in
different areas. All fuel tanks should be well-anchored to prevent them from tipping. Visit
the fuel tanks and cylinders to determine the safety and security of the installations and
the tanks/cylinders, and should verify that the tanks/cylinders are safe and secure from
hazards (e.g. anchors, banded enclosures, safe from fire). Fuel tanks should be located at Availability of maintenance and inspection
least 2m away from power lines and from combustible elements such as weeds or dry records.
grass, in a radius of at least 3 metres. If tanks are located in publicly accessible places,
they must be protected by a security gate with a lock or padlock.
Where tanks/cylinders are supported by concrete or brick walls, the walls should be
checked for cracks and the braces or anchors checked for signs of sinking or general
deterioration. Large horizontal tanks can slide and break connection hoses, so in seismic
areas they should be supported with clamps and flexible connections. Evaluators should
check that there are appropriate isolation valves to ensure that fuel tanks can be isolated
in the event of damaged pipework.
It is important to keep in mind that the heavier the tank/cylinder and the higher its centre
of gravity, the greater is the likelihood that it will tip over. Cylinders positioned vertically
should be anchored/supported in at least three directions.
MODULE
3.3.7 3: Nonstructural
Medical gases systems safety
In good location, well ventilated,
In good location and accessible to well illuminated, accessible to
Not in good location and
authorized personnel but not authorized personnel, well-secured
77. Location of storage areas for medical gases did not meet other
secured and no protective and other protective measures
conditions/ criteria.
measures. (clearly marked and labelled) are in
place.
Check:
- Oxygen supply banks, as well as storage tanks of medical gases, should be located
outside the hospital building because of the risk of tank discharge and explosion.
- Verify that there is a site designated solely for storage of tanks and/or cylinders and
related equipment for medical gases, and that only this equipment occupies the
designated area. These areas should be well-ventilated, well-illuminated and clearly
marked and labelled.
- There should be secure enclosure around the site, with signage indicating that the gases
and equipment are dangerous.
- The location should be in an area unlikely to flood, at a distance from any heat sources
including fuel sump pits, and protected from flying or falling debris.
- The site should be easily accessible for facilities, maintenance and fire response
personnel.
Conditions not met Storage areas are in fair condition, Good condition, with separate
with separate areas for empty and areas for empty and full bottles,
full bottles, designated areas for designated areas for each type of
each type of gas but no signages ; gas, with signages, well-secured
the quality of anchors and braces and protected, anchors are of good
78. Safety of storage areas for medical gas tanks and/or cylinders is inadequate; with personnel quality for major hazards; with
trained on medical gas handling; personnel trained on medical gas
with fire extinguishing equipment. handling; with fire extinguishing
equipment .
Check:
- Visit areas where medical gas bottles, tanks and cylinders are stored to verify that Availability of drawings, maintenance and
they are safe and secure and that they are prevented from falling over and protected from inspection record, evidence of trained
hazards (e.g.obstacles, fire, anchors, braces). personnel.
- The size of the storage areas must also be adequate for the correct handling of bottles,
tanks and cylinders from deliveries. Each cylinder containing gas must have permanent
marks that show whether it has pure gas or a mix of gases inside.
- Storage areas should also show the types of risks and safety measures to be taken, so
that the necessary control actions are applied when manipulating the cylinders.
- The cylinders should not be painted. In earthquake-prone zones and high-wind areas,
medical gas tanks in storage areas should be wellbraced or anchored. If these tanks or
cylinders are stored in undesignated parts of the hospital, such as corridors, the rating
should be “low”.
- Ascertain that the personnel responsible for managing medical gases know all safety
procedures and isolation requirements for each type of gas being used.
- Fire extinguishing equipment must be available, and personnel must be trained in its use.
MODULE 3: Nonstructural safety In fair condition; properly color In good condition properly color
coded and labelled; inadequate coded and labelled, properly
79. Condition and safety of medical gas distribution system (e.g. valves, pipes,
Conditions not met. anchorage and not protected, anchored and protected; bottle
connections)
bottle pigtails are flexible; No pigtails are flexible; No gas
leakage. leakage.
Verify that storage devices and distribution networks use colour-coding and labelling to
identify different types of medical gases. In addition to different colours, the bottles or
cylinders for each type of gas use different valve configurations, eliminating the hazard of
connecting the wrong type of gas to the supply. Availability of drawings, inspection and
The major danger if gas tanks fall is that the valves will break and there will be an maintenance records.
uncontrolled flow of pressurized gases escaping into atmosphere with dangerous
consequences. Inspect the operation of the retaining valves in the cylinder banks, outage
valves and intake points; ensure that couplings are flexible, and there is enough play to
tolerate small movement, but that tanks cannot fall or knock against each other while they
are connected to the supply bank. Tubing should be protected and correctly anchored to
structural elements. Flexible couplings should be used where tubing crosses structural
joints. It is important to examine the network for leaks. Check the alarm system, the
capacity of operators and the maintenance system, as documented in the maintenance log-
book and records.
Medical gas bottles are in fair Medical gas bottles are in good
condition; color coded; well condition, color coded, well
80. Condition and safety of medical gas cylinders and related equipment in the hospital Conditions not met.
ventilated; the quality of anchors ventilated , properly braced or
and braces is inadequate. anchored.
Gas bottles, tanks and cylinders are usually located in the service areas where they are
used. They contain a variety of gases that are under high pressure; some are toxic, others
Availability of procedures and hydro-testing
are flammable. In general, the gas containers should be well-ventilated, braced or
certificate of cylinders.
anchored to avoid damage to their valves if they fall, and to avoid injuring patients and
staff or damaging other equipment. Each oxygen outlet should have a valve that can close
the supply. Quick access to the premises is necessary and the location of the keys should
be clearly marked for authorized personnel to use.
Vertical oxygen tanks should be anchored in three or four directions with welded
connections, bolts or evenly spaced tie-downs; horizontal tanks should be anchored to
walls so they cannot slide as a result of shaking during seismic events. Medical gas
distribution pipes should have flexible connections when passing from building to building
or across expansion/ seismic joints in earthquake-prone regions.
Alternative sources in place but Sufficient alternative sources are
Alternative sources are not
81. Availability of alternative sources of medical gases delivery of supplies takes longer available at short notice (at least 3
available.
than 3 days. days).
Verify that alternative or standby sources for medical gases have an oxygen supply bank Availability of Supplier Contract,
with the necessary reserve capacity and have reserve cylinders or bottles organizational policies and procedures.
available.Confirm whether the supplier of medical gases is in the vicinity and has reserves
available to enable an appropriate supply chain in an emergency. Assessors can obtain
this information through supplier contract details and organizational policies and
procedures.
Enclosures for boilers should be located away from the hospital building. Preferably, they N/A
should be housed in installations with some roof cover, isolated from fuel storage, in areas
that are easy to access and difficult to obstruct or flood. When central air-conditioning units
are on the roof of buildings they should be protected from the weather. Any HVAC
equipment should be easy to access (obstacles to access should be cleared) and
positioned in locations that are protected from flooding.
Check for:-
- Equipment has proper enclosure (specially for rotating equipment)
- Accesible with enough space for maintenance
- Properly ventilated and illuminated
- Control panels is safe from water ingress
- Plant rooms equipped with fire extinguishing equipment and with emergency lighting
All heating, ventilation and air-conditioning (HVAC) ductwork pipes should be in good
condition
and must be supported adequately by the building structure. In earthquake-prone areas,
there should be no possibility of horizontal movement. Connections should be flexible,
while the bracing should be rigid but should allow ductwork to move in three directions. In
areas of high winds, ductwork that crosses roofs should be anchored, and should be
placed above the level of the roof’s drains.
Check the distance between supports to ensure that there are no deflections caused by
the weight of the ducts, which could cause them to fall. Where internal ductwork is hidden
by false ceilings, ceiling tiles should be removed to check the ducts. Ductwork should be
flexible across expansion joints. Ductwork that crosses between blocks of buildings units
should be inspected to ensure that it is not damaged and corrosion has not started to
occur around the ducts adjacent to each block or building.
Pipes should travel through conduits so that they are protected from humidity and Availability of inspection, testing and
corrosion when passing through walls or fixtures or where they breach a fire compartment. maintenance records.
Check that valves operate and should review the condition of pipes in kitchens, boilers or
other areas where there is steam to ensure that coatings or piping are protected. Check
that condensation will not affect the insulation of piping and that leaks from upper floors
will not affect elements and services below. Humidity can ruin false ceilings and other
hospital elements or equipment that come into contact with the piping.
Piping should have flexible connections where it crosses expansion joints of the
building, and spans from building to building in earthquake-prone areas or where it is
connected to a rigid piece of equipment. The pipes should be supported at a distance
from electrical panels or wiring. Safety valves or air valves for steam or for hot or room-
temperature water respond to seismic amplifications such as inverted pendulums, so they
should have lateral supports.
Check the condition and safety of air-conditioning units which may be local or central,
compact or not. Central air-conditioning units may be compact or split with a fan coil unit.
As not all air-conditioning systems can accommodate all requirements of areas with very
high sanitation requirements (e.g. operating rooms, intensive care units) and other areas
of the hospital, check the physical and technical condition of the equipment, including its Availability of drawings, inspection, and
suitability for servicing the area where it is installed.. maintenance records.
Air-conditioning units are very heavy and are generally located in areas with ventilation,
such as on roofs, upper floors of the hospital, or floors dedicated to building machinery
and equipment. Because of their weight, air-conditioning units can significantly change the
behaviour of the structure. Unless they are well-secured or anchored, the units can move
or overturn and, as a result, can cause partial or total collapse of the building. Smaller split
systems have the evaporator inside and the compressor and condenser outside, on the
roof, patio or elsewhere. The outside equipment is vulnerable to strong winds and floods
and must be well anchored and located out of reach of water that would damage the
electrical system. Indoor units should be firmly anchored to structural elements; if they
should fall they could injure people or damage other equipment. The condition and safety
of window units or small portable units should also be checked.
89. Operation of air-conditioning system (including negative pressure areas) Negative pressure room With negative pressure room
ventilation system is Negative pressure room ventilation ventilation system and is isolated
LEFT BLANK IF NOT APPLICABLE (this is applicable for one of the local hospital SAN incorporated with the Air- system has no HEPA filters. from the air conditioning system
LAZARO HOSPITAL with Biological isolation room) conditioning system. provided with HEPA filters.
Evaluators should check the ability of the hospital to establish zones for the air-
conditioning systems to reduce the spread of infectious diseases or fire. If there are
negative pressure rooms in areas of high risk for infectious diseases, evaluators should
check that these zones can be isolated from the air-conditioning system.
Documented procedures Documented emergency Emergency Procedures exist,
and procedures exist, maintenance/inspection records
maintenance/inspection maintenance/inspection records are up to date, personnel have
90. Emergency maintenance and restoration of HVAC systems records do not exist; no are up to date, personnel have been trained on operation and
trained personnel on been trained but no resources for maintenance, and resources are in
Availability of operations manual and operation and implementing emergency place for implementing emergency
preventive maintenance records, maintenance. maintenance and restoration. maintenance and restoration.
emergency procedure, evidence of trained
personnel.
Check for:
- Availability of operations manual and preventive maintenance records
- Emergency procedure for maintaining HVAC systems
- Personnel is properly trained for maintenance and safety (normal operation & emergency
situations)
MODULE
3.4 3: Nonstructural
Equipment and supplies safety
3.4.1 Office and storeroom furnishings and equipment (fixed and movable)
No shelving/contents
91. Safety of shelving and shelf contents Some shelving/contents fixed. All shelving/contents fixed.
fixed.
Verify that shelving (whether as shelving units or wall attachments) and its contents should
be safely secured from falling. Shelves should not pose an occupational hazard or be at
risk of falling in a hazard event. Check that they are located where they will not obstruct
emergency access, evacuation routes or emergency exits. Shelves of medical contents
should all have lips or railings to prevent bottles or other material from falling.
Verify that shelves are anchored to the walls and/or are braced and that the contents are
secured. Clinical areas, offices, libraries and clinical records archives commonly have
shelving units with glass doors. These units should be connected to each other and
unbreakable material should replace the glass. Where there are rows of high, free-
standing shelves, these must be anchored to the floor, connected to each other at the top
by ties that cross the room and attached to the wall at each end of the row of shelves.
Connecting the shelves increases lateral stability, lessening the chance that they will fall.
For tall shelving made of combustible material, the condition of lighting fixtures and wiring
near the shelves should be inspected.
3.4.2 Medical and laboratory equipment and supplies used for diagnosis and
treatment
93. Safety of medical equipment in operating theatres and recovery rooms Not fully fixed. N/A. Equipment is in fixed and safe.
Verify that medical equipment is safely secured with respect to natural and otherhazards.
Operating theatres and recovery rooms should not be located where they are most
vulnerable to the effects of natural hazards, including flooding, earthquakes and winds.
Verify that lamps, equipment for anaesthesia and surgical tables are operational and
that table or cart wheels are all locked, and in turn should be secured to the operating
table when in use. Ceiling light fixtures in surgery should function, the hinges on the
extension arm should be properly adjusted, and fixtures should be well-anchored to
Direct observation and inspection
beams to prevent them from swinging. Braces, latches and castor brakes on all equipment
should be inspected.
Life support equipment should be completely anchored, eliminating the possibility of
disconnection from the patient. Flexible hoses and tubes with swivel connectors and
automatic shut-off valves should be used for connecting equipment to medical gases,
water or steam. Cables that connect equipment to a power source should pass through a
conduit so that they cannot tangle during rotational motion. Equipment should not be
placed above the patient. When not in use, equipment should be braced against a wall,
with brakes applied to carts and rolling tables.
MODULE
94. 3: safety
Condition and Nonstructural
of radiology andsafety
imaging equipment Not fully fixed. N/A Equipment is fixed and safe.
Verify that radiology and imaging equipment is safely secured with respect to natural
hazards. They should be located where flooding cannot damage them.Verify that the
condition of X-ray equipment and carts holding the equipment is in good condition and is
secured; brakes for cart wheels must be functional. Where computed axial tomography
(CAT) scanners are used, verify that they function and safety measures are in place.
Operators should be familiar with all safety protocols for using the equipment. Criteria used
in this item (94) can be applied to other equipment that should be anchored. Direct observation and inspection
In earthquake-prone areas, adequate anchors for this heavy equipment are needed to
keep it from tipping or moving. The higher the centre of gravity of these items, the greater
the possibility they will tip over. Power connections and other connections should be
flexible; it is better for cables to be disconnected than to break. Hospital equipment is
highly sensitive to sudden changes in voltage (e.g. computed tomography scanner,
mammography equipment, excimer laser, magnetic resonance imaging scanner) so
evaluators should ensure that this equipment has voltage regulators and earth-grounding
to protect equipment from electrical discharge.
95. Condition and safety of laboratory equipment and supplies Not fully fixed. N/A. Equipment is fixed and safe.
96. Condition and safety of medical equipment in emergency care services unit Not fully fixed. N/A. Equipment fixed and safe.
The instructions for evaluators in items 93 and 94 should be taken into consideration when
assessing the condition and safety of equipment in the emergency care services unit.
Evaluators should check that this equipment – which includes crash carts, oxygen tanks,
monitors etc. – is in working order and is secured.
97. Condition and safety of medical equipment in intensive or intermediate care unit Not fully fixed. N/A. Equipment fixed and safe.
The instructions for assessors in items 93 and 94 should be taken into account when
assessing the condition and safety of equipment in the intensive care unit. Evaluators
should check that basic and specialized intensive care equipment is in good working order
and is well-secured. This equipment includes life-support systems, ventilators,
resuscitation equipment, oxygen tanks, monitors etc. The most rigorous inspection should
be carried out in the quarantine units of the hospital because of the added hazards of
contamination or infection.
MODULE
98. 3: safety
Condition and Nonstructural safety
of equipment and furnishings in the pharmacy Not fully fixed. N/A. Equipment fixed and safe.
The instructions for evaluators in items 93 and 94 should be taken into account when
assessing the condition and safety of equipment in the pharmacy. Refrigeration units for
medicine and other supplies should be inspected to ensure that they are in good order and
their contents are secured. In hospitals in earthquake-prone zones or high-wind areas,
shelving used for storage of medicines must be well-anchored (see item 93). Because
some materials in the pharmacy are flammable, there should be adequate fire protection
items or systems (extinguishers, standpipe systems etc.) and pharmacy staff must be
trained in operating this equipment. Measures should be in place to ensure that the
pharmacy is secured against theft.
99. Condition and safety of equipment and supplies in the sterilization services Not fully fixed. N/A. Equipment fixed and safe.
The instructions for evaluators in items 93 and 94 should be taken into account when
assessing the condition and safety of equipment in the hospital’s sterilization services (in a
unit or otherwise). assessors should check the condition of autoclaves and should review
the operator’s training in managing them in cases of emergency. Water leaks originating
outside the units and possible contamination of stored items are concerns in sterilization
units, so evaluators should determine whether there are water filtration systems on upper
floors, water outlets or, in the worst case, toilets that could contaminate stored items.
Proper labelling for routing sterile and contaminated equipment should be checked.
Evaluators must ensure that safety measures are being used for shelving and trolleys
where sterilized materials are stored (see item 92); materials can be contaminated if
shelves or trolleys tip over during a seismic event.
Autoclaves are heavy and they should be completely anchored in earthquake-prone
zones. Water supply to autoclaves should have flexible connections in earthquake-prone
areas. Evaluators must also ensure that fire protection items or systems are present
(including extinguishers, standpipe systems etc.) and that the staff are qualified to use
them. The proximity of doors and windows to the materials being sterilized should be
checked, as well as the materials used for the doors and windows
100. Condition and safety of medical equipment for obstetric emergencies and neonatal
Not fully fixed. N/A. Equipment fixed and safe.
care
The instructions for evaluators in items 93 and 94 should be taken into account when
assessing the condition and safety of equipment for obstetric emergencies and neonatal
care. While a hospital may not have specialized services for neonatal care, evaluators
should check that equipment and supplies are available for a basic level of emergency
care for obstetric emergencies and neonatal care. Check that equipment is in working
order and is secured. Specific neonatal equipment includes incubators, resuscitation
equipment, oxygen tanks, monitors etc. Sanitatioen and hygiene should be rigorously
reviewed in these units, particularly in birthing rooms, because of the vulnerable condition
of newborns. Doors and windows should be able to resist strong winds; if water penetrates
the area, specialized equipment can be damaged or destroyed. It is difficult to transfer
newborns to other areas of the hospital because of their vulnerability.
MODULE 3: Nonstructural safety Equipment is lacking, is in Equipment is in fair condition and Equipment is in good condition, is
101. Condition and safety of medical equipment and supplies for emergency care for burns poor condition, or there are some measures provide partial well-secured and measures
no protective measures. protection. provide good protection.
The instructions for evaluators in items 93 and 94 should be taken into account when
assessing the equipment for emergency care for burns. While a hospital may not have
specialized services for burns patients, evaluators should check that equipment and
supplies are available for a basic level of emergency care for burns. Evaluators should
check that basic and/or specialized burn care equipment and supplies are in good working
order and well-secured. This equipment includes life-support systems, ventilators, oxygen
tanks, monitors, crash carts etc.
102. Condition and safety of medical equipment for nuclear medicine and radiation therapy Not fully fixed. N/A. Equipment fixed and safe.
The instructions for evaluators in items 93 and 94 should be taken into account when
assessing the condition and safety of equipment for nuclear medicine and radiation
therapy. Check the handling, condition and safety of samples. Supplies should be stored
in areas where they cannot fall or be hit by other objects. If containers break or leak,
technicians and patients could be contaminated. Further safety measures may be required
to protect equipment from movement or damage due to hazardous phenomena. Drums
used for radioactive waste must be in safe locations and have secure covers. Verify that
radiation sensors and chambers for handling samples function correctly, and that signs
indicate restricted areas. As in other areas of the hospital, fire-extinguishing equipment
should be checked and evaluators should verify that staff know how to operate it.
Many of the elements addressed in items 93 and 94 will be applicable in other services of
the hospital not already addressed. These could include infectious disease services,
cardiology, orthopaedics, paediatrics, maternity, physiotherapy etc. Evaluators should
carry out a review of the remaining areas, giving the most weight to areas that would
influence the overall functioning of the hospital.
Verify the level of demand for medicines and supplies at planned maximum capacity of the
hospital, taking into account the types of services provided by the hospital and the Availability of medicines and supplies
additional capacity required to respond to emergencies and disasters. Check if the inventory.
availability of medicines will cover this maximum demand for at least 72 hours to ensure
that the hospital can sustain the provision of services in an emergency or disaster. The
WHO List of Essential Drugs can be used as a reference.
Evaluators should verify the level of the demand for sterilized instruments at the hospital’s
maximum capacity, taking into account the types of services provided and the additional Availability of policy and procedure for
capacity required to respond to emergencies and disasters. Check if the availability of instrument sterilization.
medicines will cover this maximum demand for at least 72 hours to ensure that the hospital
can sustain the provision of services in an emergency or disaster. Evaluators should
confirm that the hospital has a supply of sterilized materials for use in an emergency
(evaluators can check the supply prepared for the following day), and that it has the
means to sterilize instruments and provide sterilized materials to cover maximum demand
for at least 72 hours.
Verify the level of demand for medical gases at the maximum capacity of the hospital,
taking into account the types of services provided by the hospital and the additional
capacity required to respond to emergencies and disasters. Check that the availability of
medical gases will cover maximum demand for at least 15 days to ensure that the hospital
Availability of procedures and
can provide services in emergencies. Check the reserve capacity of each type of medical
policyAvailability of procedures and policy
gas used in the hospital, taking into account both the central supply bank and the cylinders
or bottles in areas of service. The 15- day supply standard is used because large
quantities of medical gases are required and deliveries of these gases tend to be
infrequent. Verify the existence of up-to-date emergency contact details (e.g. telephone
numbers, addresses) of medical gas suppliers. It is also important to confirm the frequency
of deliveries of gases.
Verify that an inventory of the quantity, condition and protocols for use of this equipment is
available (usually from the Hospital Emergency/Disaster Committee).Verify the level of
Availability of protocol, monitoring records
demand for mechanical volume ventilators at the maximum capacity of the hospital, taking
and inspection.
into account the types of services provided by the hospital and the additional capacity
required to respond to emergencies and disasters. Check that the ventilators available will
cover this maximum demand for at least 72 hours to ensure that the hospital can sustain
the provision of services in an emergency or disaster.
Verify that an inventory of the quantity, conditions and protocols for use of electromedical
or clinical engineering equipment is available (usually from the Hospital
Emergency/Disaster Committee).Verify the level of demand for electromedical equipment Availability of protocols and inventory
(e.g. portable electrocardiographs, blood gas monitors, surgical cautery equipment, records.
syringe pumps, ultrasound machines) at the maximum capacity of the hospital, taking into
account the types of services provided by the hospital and the additional capacity required
to respond to emergencies and disasters. Check that the availability of electromedical
equipment will cover this maximum demand for at least 72 hours to ensure that the
hospital can sustain the provision of services in an emergency or disaster.
Verify that an inventory of the quantity, condition and protocols for the use of
this equipment (e.g. defibrillators, ventilators) is available (usually from the Hospital
emergency/Disaster Committee). Verify the level of the demand for life-support equipment Availability of protocol and monitoring
at the maximum capacity of the hospital, taking into account the types of services provided records/report.
by the hospital and the additional capacity required to respond to emergencies and
disasters. Check that the availability of life-support equipment will cover this maximum
demand for at least 72 hours to ensure that the hospital can sustain the provision of
services in an emergency or disaster.
Verify that an inventory of the quantity, condition, locations and protocols for
the use of this equipment and of supplies for managing cardiopulmonary arrest is available
(usually from the Hospital Emergency/Disaster Committee). Evaluators should verify the Availability of protocols and monitoring
level of the demand for cardiopulmonary arrest at the maximum capacity of the hospital, records.
taking into account the types of services provided by the hospital and the additional
capacity required to respond to the most likely emergencies and disasters. Evaluators
should check that the availability of these supplies and equipment will cover this planned
maximum capacity for at least 72 hours to ensure that the hospital can sustain the
provision of services in an emergency or a disaster.