Management and disposal of clinical waste
MANAGEMENT AND DISPOSAL OF CLINICAL WASTE
(CASE STUDY: HOSPITAL UNIVERSITI KEBANGSAAN MALAYSIA)
ZAIMASTURA BINTI IBRAHIM
A report submitted in partial fulfillment of the
requirements for the award of the degree of
Bachelor of Civil Engineering (Environmental Engineering)
Faculty of Civil Engineering
Universiti Teknologi Malaysia
The successful completion of this project would be impossible without the
assistance and supports from many individuals who have lent me their hands either
directly or indirectly.
First and foremost, I would like to express my sincere gratitude and appreciation
to my supervisor, En Mohd Nor Othman for his endless support, invaluable guidance
and critics throughout the project.
I would like to express my gratitude to Encik Zulkifli from Department of
Engineering Hospital Universiti Kebangsaan Malaysia (HUKM) for giving me the
permission to do the reseach in HUKM. Also to Encik Nasyaruddin from Radicare (M)
Sdn Berhad (RMSB) branch at for his co-operation on the explanation of clinical waste
generation in HUKM. Special thanks to Encik Azman, the Plant Engineer from RMSB
incinerator at Teluk Panglima Garang, Selangor for giving me the full explanation on
incinerator operation and basic explanation on Kualiti Alam Sdn Bhd operations.
Finally, my gratitude goes to my parents and family members who have been
most supportive all the times.
sisa klinikal di Malaysia yang menggunakan konsep
‘buaian ke kubur' dikawal sepenuhnya oleh Peraturan Kualiti Alam Sekeliling (Sisa
Berjadual) 1989. Setiap elemen dalam pengurusan dan perlupusan sisa klinikal
melibatkan pihak seperti pengeluar buangan dan kontraktor. Penjanaan sisa klinikal
dari hospital memerlukan pengurusan yang lengkap dan tersusun serta memahami
tanggungjawab masing-masing. Pengurusan sisa klinikal yang lemah akan
menyebabkan peningkatan pendedahan terhadap penyakit-penyakit berjangkit seperti
Hepatitis A, Hepatitis B dan AIDS. Adalah penting untuk membezakan sisa klinikal
dengan sisa lain. Sumber utama peyakit akibat sisa klinikal adalah kemalangan
melibatkan picagari dan alatan tajam. Penggunaan bekas picagari yang diperbuat dari
bahan yang kukuh mengurangkan risiko kemalangan. Pengangkutan sisa klinikal
samada dalaman atau luaran mempunyai garis panduan tertentu bagi mengurangkan
risiko terhadap pekerja, staf hospital dan orang ramai. Kaedah penunuan merupakan
kaedah yang terbaik untuk melupuskan sisa klinikal yang dikategorikan sebagai sisa
berjangkit. Hasil akhir penunuan iaitu abu (hampas bijih), akan dilupuskan di tapak
perlupusan terjamin.
ABSTRACT
Management and disposal of clinical waste in Malaysia using ‘cradle-to-grave'
concept is controlled by Environmental Quality (Schedule Waste) Regulation 1989.
Every element in managing and disposal of clinical waste is dealing with waste
generators and contractor. Generation of clinical waste in hospital need complete and
arranged management in order to take full responsibility of each job. Poor management
can cause high exposure of disease such as Hepatitis A, Hepatitis B, and AIDS. It is
important to differentiate clinical waste with other waste. The main source of accident
on clinical waste is syringe and blades Using sharp container made from strong material
can reduce the risk of accident. Certain guidelines need to be taken into consideration
during transportation of clinical waste whether internal or external to reduce risk to
porters, hospital staff and publics. Incineration is the best method of disposing clinical
waste since it is infectious. End product of incineration is slag (bottom ash), will be sent
to secure landfill.
TABLE OF CONTENTS
CHAPTER TITLE
DECLARATION
DEDICATION
ACKNOWLEDGEMENT
ABSTRACT
LIST OF TABLE
LIST OF CHART
LIST OF FIGURE
LIST OF APPENDIX
I INTRODUCTION
1.3 Scope of Study
1.3.1 Organization
1.3.4 Temporary Storage System
1.3.5 Internal and External Transportation System 6
1.3.6 Waste Treatment and Disposal System
II LITERATURE
Category of Clinical Waste
2.2.12 Waste with high content of heavy metal
Background of radioactivity 18
Important element of managing clinical waste
2.4.2 Segregation – including packing, labeling
and documentation, transportation and
Treatment technique
2.5.1.1 Advantages and Disadvantages
III METHODOLOGY
Method of study and getting the information
3.2.1.3 Comment on document
IV RESULT
DISCUSSION
4.1.2 Head of Department of each wards and
4.1.4 Radicare (M) Sdn Bhd Supervisor
Important element of clinical waste management
4.2.2.1 Yellow clinical waste plastic bags
4.2.2.2 Blue clinical waste plastic bags
4.2.2.3 Method of using clinical waste
4.2.2.4 Sharps container
4.2.2.5 Pedal bin, 15 kg wheeled bin and 54
4.2.2.6 Internal transportation
transportation 62
Documentation 64
4.3.1.1 Charge End (Feeding)
4.3.1.3 Heat Recovery stage
4.3.1.4 Pollution Control stage
4.3.2 Disposal of treated waste
4.3.2.1 Kualiti Alam Sdn Bhd
4.3.2.2 Secure Landfill of KASB
4.3.2.3 Method of disposal
CONCLUSIONS
REFERENCES
APPENDIX
LIST OF TABLES
TABLE NO.
Most common genotoxic products used in health-
Most common gases used in pressure containers
Major sources of clinical waste
Minor sources of clinical waste
Name of wards in HUKM, Cheras
Collection frequency of clinical waste in HUKM
Clinical waste composition
Air Emission Standards for Clinical Waste Incinerator
LIST OF CHARTS
Practical category and sources of clinical waste
Clinical Waste Management Service for Radicare (M)
LIST OF FIGURE
FIGURE NO.
Clinical waste generated in HUKM, Cheras
Yellow clinical waste plastic bag
Blue clinical waste plastic bags
660 L wheeled bin
Small opening for internal transportation of clinical waste
The other side of clinical waste small opening
Front view of temporary storage
The porter taking collected clinical waste to temporary
Vehicle loading with clinical waste in 15 kg
Side view of vehicle used in external transportations
Loading waste in the wheeled bin into Cart Elevator
Waste flow in Charge End Process
Lime and Activated Carbon Injection area
LIST OF APPENDIX
APPENDIX NO.
Equipment used HUKM for clinical waste management
Stages of Rotary Kiln incinerator
KASB license from Department of Environment
Transfer station of schedule waste
CHAPTER I
Malaysia has experienced phenomenal economic growth in the last two decades.
It has undergone a major structural transformation, moving from agriculture to
manufacturing-based economy, with significant social changes. This rapid development
has brought about significant impacts to the natural environment.
The government has since as early as 1974 taken concrete steps by introducing
an enabling legislation called the Environmental Act 1974. The main objective of this
act is to prevent, abate and control pollution, and further enhancing the quality of the
environment in this country. The Department of Environment has been entrusted to
administer this legislation to ensure that Malaysia will continue to enjoy both industrial
grow and a healthy living environment.
Presently, waste management is one of the most important responsibilities
of local authorities in Malaysia where much money is spent in the disposal of
waste. Growing affluence and increasing population concentration in urban areas
have increased the generation and types of solid waste. A comparison of the increase
in waste generation or several urban areas in Malaysia over the last 30 years is
shown in Table 1.1.
Table 1.1: Estimated Waste Generation
Waste Generation (tonnes/day)
1970 1980 1990 2000
Kuala Terengganu
13.4 45.1 85.2 305.0
14.4 29.1 46.8 368.7
Under the Environmental Quality (Schedule Waste) Regulation 1989,
pathogenic and clinical wastes, quarantined materials, discarded drugs except living
vaccines and euphoric compounds are categorized as scheduled wastes, hence need to
be managed as such. The Ministry of Health (MOH) estimated that the total amount of
clinical wastes generated from MOH hospital to be 11500 kg/day or an average of 0.51
kg/occupied bed/ day (Lee, Heng Keng, 2001).
Clinical waste is part of waste that generates everyday in hospitals. Clinical
waste includes a large component of general waste and a small proportion of hazardous
waste. Poor management of clinical waste causes serious diseases in hospital personnel,
health workers, patient and the general public. The main source of illness from
infectious waste is probably injuries with used needles, which can cause hepatitis and
HIV. There are however numerous other diseases which could be transmitted by
contact with clinical waste. The hazardous nature of clinical waste may be due to one or
more of following characteristic:
i) It contains infectious agents
ii) It is genotoxic
iii) It contains toxic or hazardous chemicals or pharmaceutical
iv) It is radioactive
v) It contains sharps
According to WHO, among the 35 million hospital workers worldwide, about 3
million receive percutaneous exposure to blood borne pathogens each year; 2 million of
those to HBV, 0.9 million to HCV and 170 000 to HIV. These injuries may result in 15
000 HCV, 70 000 HBV and 500 HIV infections. More than 90 % of these infections
occur in developing countries.
This study is done basically to explain the importance of managing the clinical
waste in a proper way. As stated above, the act and legislation is to guide the people
involved in clinical waste management on doing their work effectively and concerning
about the risk to be faced.
1.2 Objectives
The objectives of this project are
i) To study the management and disposal of clinical waste at HUKM is in the
ii) To study the act and legislation with regards to the procedures of
management and disposal of clinical waste.
iii) To study the important elements in management and disposal of clinical
Scope of study
The scope of study in management and disposal of clinical waste is combined in
several systems. Every system has it own scope of work beginning from Organization
Structure System to Clinical waste disposal system.
1.3.1 Organization Structure System
Organization is a structure or process where the Director can assign duty to an
individual, group or company in order to achieve the objectives. In every department or
division, organization chart is important to show the hierarchy and scope of work or
duty. Every member in the chart has their own skill depending on the position and
function. For example, the officer is the person in charge on directing and controlling
the performance for every member in the organization. In this case, he or she will
monitor whether the worker take full responsibility in doing their job and follow the
guidelines provided because the risk is everywhere.
Segregation System
Segregation starts at the place where the clinical waste is generated until at the
place it will be disposed, internally or externally. Segregation is also done during the
transportation of the waste. In the hospital, every worker who is responsible on waste
segregation has to make sure all the clinical wastes were put into yellow bin. For the
sharps, it is placed in drum container. The bin and drum container must be tightly
covered and when it is three quarter full, it should ready to be disposed.
Documentation System
The source of every bin and container must be recognized to trace if there is any
spills or over limit of waste. Labeling and documentation is done in certain way. For
example, by writing down to the bag or container, using adhesive tag etc.
Temporary Storage System
Every hospital must have a temporary storage to minimize the movement of
waste in the open from initial storage areas. The storage area should be locked when
access is not required and should be accessible only to authorized persons. The
importance of having temporary storage is for the convenience of health workers. Every
bin and container can be taken out in ‘first in, first out' sequence and load onto the
trolley or vehicle used.
Internal and External Transportation System
Every single bin and container containing clinical waste will be moved out from
where it is generates. Usually, trolley and minivan is used in internal and external waste
evacuation. This vehicle shall be reserved only for transportation of clinical waste. It
should thoroughly clean and disinfected immediately following any spillage or
accidental discharged. Plus, the internal transport routes shall be designed to minimize
the passage of waste through patient care areas and other clean areas.
Waste Treatment and Disposal System
An evaluation on choosing the right place for disposal and right method for
treatment is needed to optimize effectiveness and safety. The evaluation covers some
aspect such as technology, environment, economy and geography.
Some considerations to be made are:
Technology requirement and the importance
Treatment process flow
Process effectiveness and devices
Treatment operation effect to health workers, public and environment.
Size of process treatment
Operation cost and capital available
Site suitability
Problem Fact
Clinical waste is a public health issue that attracts attention in both
industrialized and developing countries. Improper management of clinical waste may
pose health hazard to health workers, public and also environment.
Obviously, clinical waste in Malaysia is no longer a simple task. Proper
planning and management of hospital or clinical waste generated is crucial, not only in
relation to waste disposal but also to various aspects of waste minimization such as
environmental education and enforcement of act.
The most common problem related to the management and disposal of hospital
or clinical waste is money. Just because of budget constraint, the importance of
management and disposal of hospital or clinical waste was ignored. Sometimes, lack of
awareness also contributes to the problem.
The main objectives in this study are to make sure the management and disposal
of clinical waste is in good condition plus to fulfill the act that relates to it. Besides that,
observation on important elements of management and disposal of hospital or clinical
waste is observed.
CHAPTER II
LITERATURE REVIEW
Definition of Clinical Waste
For many years, health workers, hospital administrators, and other health related
professionals have understood the necessity to protect themselves, their
employees/members, and the public from exposure to wastes that might be reservoirs of
diseases-transmitting organism.
In 1982, the recommendation from Health and Safety Commission London, The
Safe Disposal of Clinical Waste, clinical waste is defined as: ‘Waste arising from
medical, nursing, dental, veterinary, pharmaceutical or similar practice, investigation,
treatment, care, teaching or research which by nature of its toxic, infectious or
dangerous content may prove a hazard or give offence unless previously rendered safe
and inoffensive. Such waste includes human or animal tissue or excretions, drug and
medical products, swabs and dressings, instruments or similar substance or materials'.
In other case, Department of Engineering, Ministry of Health include the
definition of clinical waste as ‘Any waste that contain swabs, syringes, blood, human or
animal tissue, drug and other cleaning devices. It also include any waste from dentistry
activity, research, pharmacy, and also veterinary'.
For Malaysia, clinical waste is classified as schedule waste from non-specific
source under the Environmental Quality (Schedule Wastes) Regulation 1989 that
N251 - Discarded drugs except living vaccines and euphoric compounds;
N261 - Pathogenic and clinical waste and quarantine materials;
N281 - A mixture of scheduled waste
N282 - A mixture of scheduled and non-scheduled wastes.
Category of Clinical Waste
2.2.1 Infectious waste
Infectious waste is suspected to contain pathogens (bacteria, viruses parasites,
or fungi) in sufficient concentration or quantity to cause disease in susceptible hosts.
This category includes:
Cultures and stocks of infectious agents from laboratory work;
Waste from surgery and autopsies on patient with infectious diseases
(e.g. tissue, and materials or equipment that have been in contact with
blood or other body fluids);
Waste from infected patients in isolation ward (e.g. excreta, dressings
from infected or surgical wounds, clothes heavily soiled with human
blood or other body fluids);
Waste that has been in contact with infected patients undergoing
haemodialysis (e.g. dialysis equipment such as tubing and filters,
disposed towels, gowns, aprons, gloves, and laboratory coats);
Infected animals from laboratories;
Any other instruments or materials that have been in contact with
infected persons or animals.
Cultures and stocks of highly infectious agents, waste from autopsies,
animal bodies, other waste items that have been inoculated, infected, or
in contact with such agents are called highly infectious waste.
2.2.2 Pathological waste
Pathological waste consists of tissues, organs, body parts, human fetuses and
animal carcasses, blood and body fluids. Within this category, recognizable human or
animal body parts are also called anatomical waste. This category should be considered
as a subcategory of infectious waste, even though it may also include healthy body
2.2.3 Sharps
Sharps are items that could cause cuts or puncture wounds, including needles,
hypodermic needles, scalpel and other blades, knives, infusion sets, saw, broken glass,
and nails. Whether or not they are infected, such items are usually considered as highly
hazardous health-care waste.
2.2.4 Pharmaceutical waste
Pharmaceutical waste includes expired, unused, spilt and contaminated
pharmaceutical products; drugs and vaccines that are no longer required and need to be
disposed of appropriately. The category also includes discarded items used in the
handling of pharmaceuticals, such as bottles or boxes with residues, gloves, and mask,
connecting tubing and drug vials.
2.2.5 Genotoxic waste
Genotoxic waste is highly hazardous and may mutagenic, teratogenic, or
carcinogenic properties. It raises serious safety problems and should be given special
attention. Genotoxic waste may include certain cytostatic drugs, chemical, vomit, urine
or feaces from patients treated within cytostatic drugs, chemicals, and radioactive
Cytotoxic (or antineoplastic) drugs, the principal substance in this category,
have the ability to kill or stop the growth of certain living cells and are used in
chemotherapy of cancer. They plan an important role in therapy of various neoplastic
conditions but are also finding wider application as immunosuppressive agents in organ
transplantation and in treating various diseases with an immunological basis. Cytotoxic
drugs are most often used in specialized departments such as oncology and
radiotherapy units, whose main role is cancer treatment; however, their use in other
hospitals departments is increasing and they may also be used outside the hospital
Table 2.1: Most common genotoxic products used in health care premises
Classified as carcinogenic Chemicals: Benzene Cytotoxic and other drugs:
Azathioprine, chlorambucil, chlornaphazine, ciclosporin, cyclophosphamide,
melphalan, semustine, tamoxifen, thiotepa, treosulfan
Radioative substances
Classified as possibly or probably carcinogenic
Cytostatic and other drugs:
Azacitidine, bleomycin, carmustine, chloramphenicol, cisplatin, dacarbazine, daunorubicin, dihydroxymethyfuratrizine (e.g. Panfuran S- no longer in use), doxorubicin, lomustine, methylthyouracil, metronidazole, mitomycin, nafenopin, niridazole, oxazepam, phenacetin, Phenobarbital, phenytoin, procarbazine hydrochloride, progesterone, sarcolysin, streptozocin, trichlormethine
Harmful cytostatic drugs can be categorized as follows:
Alkylating agents: cause alkalynation of DNA nucleotides, which leads to cross-linking and miscoding of the genetic stocks;
Antimetabolities: inhabit the biosynthesis of nucleic acids in the cell;
Mitotic inhibitors; prevent cell replication.
Cytostatic wastes are generated from several sources and can include the following:
Contaminated materials from drug preparation and administration, such
as syringes, needles, gauges, vials, packaging;
Unwanted drugs, excess (leftover) solutions, drugs returned from the
Urine, feaces and vomit from patient, which may contained potentially
hazardous amounts of the administered cycostic drugs or of their
metabolites and which should be considered genotoxic for at least 48
hours and sometimes up to 1 week after drug administration.
2.2.6 Chemical
Chemical waste consists of discarded solid, liquid and gaseous chemicals, for
example from diagnostic and experimental work and from cleaning, housekeeping, and
disinfecting procedures. Chemical waste may be hazardous or nonhazardous; in the
context of protecting health, it is considered to be hazardous if it has at least one of the
following properties:
Corrosive (e.g. acids of pH < 2 and bases of pH >12
Reactive (explosive, water reactive, shock-sensitive)
Genotoxic (e.g. cycostic drugs)
Non-hazardous chemical waste consist of chemical with none of the above
properties, such as sugars, amino acids, and certain organic and inorganic salts.
2.2.7 Formaldehyde
Formaldehyde is a significant source of chemical waste in hospitals. It is used to
clean and disinfect equipment (e.g. haemodialysis or surgical equipment), to preserve
specimen, to disinfect liquid infectious waste, and in pathology, autopsy, dialysis,
embalming and nursing units.
2.2.8 Photographic
chemicals
Photographic fixing and developing solutions are used in X-ray department. The
fixer usually contains 5-10% hydroquinone, 1-5% potassium hydroxide, and less than
1% silver. The developer contains approximately 45% glutaraldehyde. Acetic acids
used in both stop baths and fixer solution.
2.2.9 Solvent
Wastes containing solvent are generated in various departments of hospitals,
including pathology and histology laboratories and the engineering departments.
Solvent used in hospitals include halogenated compounds, such as methylene chloride,
chloroform, trichloroethylene, and refrigerants, and non-halogenated compounds such
as xylene, methanol, acetone, isopropanol, toluene, ethyl acetate, and acetonitrile.
2.2.10 Organic chemicals
Waste organic material chemicals generated in hospital facilities include:
Disinfecting and cleaning solutions such-as phenol-based chemicals
used for scrubbing floors, perchloroethylene used in workshops and
Oils such as vacuum-pump oils, used engine oil from vehicles
(particularly if there is a vehicle service station on the hospitals
Insecticides, rodenticides.
2.2.11 Inorganic chemicals
Waste inorganic chemicals consist mainly of acids and alkalis (e.g. sulfuric,
hydrochloric, nitric, and chromic acids, sodium hydroxide and ammonia solution).
They also include oxidants, such as potassium permanganate (KMnO4) and potassium
dichromate (Kr2Cr2O7) and reducting agents, such as sodium bisulphate (NaHSO3) and
sodium sulfite (Na2SO3).
2.2.12 Waste with high content of heavy metals
Wastes with a high heavy-metal content represent a subcategory of hazardous
chemical waste, and are usually highly toxic. Mercury waste is typically generated by
spillage from broken clinical equipment but their volume is decreasing instruments
(thermometers, blood pressure gauge, etc). Whenever possible, spilled drops of
mercury should be recovered. Residues from dentistry have high mercury content.
Cadmium waste comes from mainly from discarded batteries. Certain "reinforced wood
panels" containing lead is still used in radiation proofing of X-ray and diagnostic
departments. A number of drugs contain arsenic, but these are treated here as
pharmaceutical waste.
2.2.13 Pressurized containers
Many types of gas are used and are often stored in pressurized cylinders,
cartridges, and aerosol cans. Many of these, once empty of no further use (although
they may contain residues), are reusable, but certain types.
Whether inert and potentially harmful, gases in pasteurized containers should
always be handled with care; containers may explode if incinerated or accidentally
Table 2.2 : Most common gases used in pressure containers
Anaesthetic gases:
Nitrous oxide, volatile halogenated hydrocarbons (such as halothane, isoflurane
and enflurane), which have largely replaced ether and chloroform.)
Application- in hospital operating theaters, during childbirth in maternity hospitals, in ambulance, in general hospitals wards during painful procedure, in dentistry, for sadation, etc.
Ethylene oxide:
Application- for sterilization of surgical equipment and medical devices, in central
supply areas and at times, in operating rooms
Oxygen:
Stored in bulk or cylinders, in gaseous or liquid form, or supplied by central piping.
Application- inhalation supply for patients
Compressed air:
Application- in laboratory work, inhalation therapy equipment, maintenance equipment and environment control system.
2.2.14 Radioactive waste
2.2.14.1 Background on radioactivity
Ionizing radiation cannot be detected by any of the senses and usually cause no
immediate effects unless an individual receives a very high dose. The ionizing of
radiations of interest in medicine includes the X-rays, α- and β- particles, and γ- rays
emitted by radioactive substances. An important practical different between these types
of radiation is that X-rays from X-rays tubes are emitted only when generating
equipment is switch on whereas radiation from radionuclides can never be switched off
and can be avoided only by shielding the material.
Radionuclines continuously undergo spontaneously disintegration (known as
"radioactive") in which energy is liberated, generally resulting in the formation of new
nuclides. The process is accompanied by the emission of one or more types of
radiation, such as α- and β- particles, and γ- rays. This cause ionization of intracellular
material; radioactives substances are therefore genotoxic.
Radioactive waste includes solid, liquid and gaseous materials contaminates
with radionuclide. It id produced as a result of procedures such as in-vitro analysis of
body tissue and fluids, in-vivo organ imaging and tumors localization, and various
investigative and therapeutic practice.
Radioactive clinical waste usually contains radionuclides with short half-life,
which lose their activity relatively quickly. Certain therapeutic procedures however
required the use of radionuclides with longer half-life; these are usually in the form of
pins, needles or "seeds" and may be reused on other patient after sterilization.
2.3 Sources of Clinical waste
The sources of clinical waste can be classed as major or minor according to the
quantities produced. The major sources are listed in Table 2.1
While minor sources may produce some clinical waste in categories similar to
clinical waste and their compositions will be different. For example:
They rarely produce radioactive or cytostatic waste
Human body parts are generally not included
Sharps consist mainly of hypodermic needles
Minor sources of clinical waste are listed in Table 2.2
The composition of wastes is often characteristic of the type of source. For
example, the different units within a hospital would generate waste with the following
Medical wards: mainly infectious waste such as dressings, bandages,
sticking plaster, gloves, disposable medical items, used hypodermic
needles and intravenous sets, body fluids and excreta, contaminated
packaging and meal scraps.
Operating theaters and surgical wards: mainly anatomical waste such as
tissue, organs, fetuses, and body parts, other infectious waste, and
Other health-care units: mostly general waste with small percentage of
infectious waste.
Laboratories: mainly pathologically (including some anatomical), highly
infectious waste, (small pieces of tissue, microbiological cultures, stocks
of infectious agents, infected animal carcasses, blood and body fluids),
and sharps, plus some radioactive and chemical waste.
Pharmaceutical and chemical stores: small quantities of pharmaceutical
and chemical wastes, mainly packaging (containing only residues if
stores are well managed), and general waste.
Supports unit: general waste only
Healthcare provided by nurses: mainly infectious waste and many
viii) Dental clinics and dentist' offices: mainly infectious waste and sharps, and
wastes with high heavy-metal content.
ix) Home healthcare (dialysis, insulin injection): mainly infectious waste and
Table 2.3 : Major Sources of clinical waste
Hospitals
• University hospitals • General hospitals • District hospitals
Other health-care establishments
• Emergency medical care services • Health-care centre and dispensaries • Obstetric and maternity clinics • Outpatient clinics • Dialysis centre • Fist-aid posts and sick bays • Long-term health-care establishments and hospices • Transfusion centre • Military medical services
Related laboratories and research centre
Animal research and testing
Blood banks and blood collection services
Nursing homes for the elderly
Table 2.4 : Minor sources of clinical waste
Small health-care establishments
• Physicians' offices • Dental clinics • Acupunctures • Chiropractors
Specialized health-care establishments and institutions with low waste generation
• Convalescent nursing homes • Psychiatric hospitals • Disabled persons' institutions
Non-health activities involving intravenous or subcutaneous interventions
• Cosmetic ear-piercing and tattoo parlors • Illicit drug user
Funeral services
Ambulance services
Home treatment
Chart 2.1 :Practical category and sources of clinical waste
(Kitchen, landscape)
half life is over
Steam sterilized, shred deep
burial encapsulation
Clinical waste – from
Microbiology lab
Steam sterilizes and
fluids, secretions
contaminated with
2.4 Important elements of managing clinical waste
The objectives of an effective clinical waste management program should be to
provide protection to human health and the environment from hazards posed by the
waste. Proper management ensures that infectious waste is handled in accordance with
established procedures from the time or generation through treatment of the waste (to
render it noninfectious and unrecognizable) and its ultimate disposal.
In Malaysia, the strategies adopted for the proper management of hazardous
wastes are a combination of the following:
The ‘cradle-to-grave' concept whereby the waste is managed from its
generation to collection, transport and final disposal;
Control through legislative and non-legislative means;
Provision of proper facilities for the treatment, recovery and final
disposal of residue; and
Encouragement of waste reduction, reuse and recovery either in-house
or at off-site facilities.
A clinical waste management should include the following important elements.
These elements cover the waste stream from it is generates until disposal.
Identification of waste
Labeling and documentation,
Internal and external transportation
Temporary storage
Treatment technique
Disposal of treated clinical waste
2.4.1 Identification of waste
Every generated waste in hospital must be identified depends on its sources and
level of hazards. Basically, two most generated wastes in hospital are clinical waste and
kitchen waste. The health-care workers must identify each waste and separate it. This is
because each waste needs to be disposed in different ways.
2.4.2 Segregation -including packing, labeling and documentation,
transportation and storage
Segregation is in some ways a minimization of wastes. In fact, it reduces the
quantity of wastes, which are hazardous and therefore require special attention and
treatment. Segregation is the separation of wastes into the following categories; sharps,
infectious non-sharp and non-hazardous waste. Segregation of clinical waste occurs at
the time the waste produced, for example, when injection is given, or when packing is
Clinical waste should be in package in order to protect waste handlers and the
public possible injury and disease that may result from exposure to the waste. In daily
practice, the selection of packaging materials is important and appropriate. For
example, plastic bags for many types of solid or semisolid waste and puncture-resistant
containers for sharps. For liquid-base waste, bottles, flasks, or tanks is used.
Labelling can be done in a number of ways such as writing the information on
the bag or container, using pre-printed self-adhesive address labels supplied on a peel-
off roll, tie-on tag label and self-locking plastics tags. In terms of labeling, all bags and
drum containers must be identified at the point of production and should be indelibly
and clearly marked with biohazard symbol. An inventory provides an accurate and up-
to-date record of quantities and categories of clinical waste being generated, treated and
Proper documentation and record is important in order to comply with the
Environmental Quality (Schedule Wastes) Regulation 1989, which require an inventory
to be kept and a consignment note system to be used for transport of waste from the
hospital to an approved facility.
2.5 Treatment technique
Treatment modifies the characteristic of the waste. Treatment of wastes mainly
aims at rendering direct exposure to the wastes as less dangerous to human, to recover
recyclable materials, and to protect the environment. In 1986 Guide, Environmental
Protection Agency (EPA) defined treatment as any method, technique, or process
designed to change the biological character or composition of waste. Since landfill
operations may cause loss of containment integrity and dispersal of infectious waste,
the EPA recommended that all infectious waste be treated prior to disposal. An
example of treatment for clinical waste is incineration.
2.5.1 Incineration
Incineration is the combustion of waste in a controlled way in order to destroy it
or transform it into less hazardous, less bulky or more controllable constituents.
Incineration continues to be a preferred treatment process for clinical waste
management. Although incineration is the most effective way, problem will occur such
as air pollution as the effect of incineration. Hard metal and toxic waste will assemble
in ash. Incineration of clinical waste offers the following advantages or potential
Volume reduction, especially for bulky solids with high combustible
Detoxification, especially for combustible carcinogens, pathological
contaminated material, toxic organic compounds, or biologically active
material that would affect sewage treatment plants.
iii) Regulatory compliance, especially for fumes containing odourous
compounds, photo reactive organics, carbon monoxide, or other
combustible materials subject to regulatory emission limitations.
Environmental impact mitigation, especially for organic materials that
would leach from landfills or create odour nuisance
Energy recovery, especially when large quantities of waste are available
and reliable markets for by-product fuel or steam are nearby.
(Theodore, 1987)
Most modern clinical waste incinerators operate on ‘controlled air' using two
chambers. The primary chamber, into which the waste is fed, operates with restricted
air flow at 1600 to 1800°F. The waste is pyrolized, and the volatiles move to a
secondary chamber where they are combusted at 1800°F or higher temperature. Excess
air is provided, in the secondary chamber, to ensure complete combustion. Ash is
moved through and exist the primary chamber by the use of hydraulic rams or other
2.5.1.1 Advantages and Disadvantages
• Maximum volume weight
• Noncombustibles not reduced in
volume (ash, metal, etc)
• Sterile residue when operated
• Complex operation considering
environmental factors
• Moderate amount of space
• Requires trained operator
• Air emission can be controlled
• Non-combustibles and ash may
pose disposal problems
(Frank L.C et al. 1990)
Figure 2.1 : Incinerator
2.5.2 Disposal of treated waste
Disposal refers to the final placement of treated waste on the land, using a
sanitary landfill or any other environmentally acceptable method of final storage
appropriate to the local conditions. Waste disposal are important for sharps, waste-
requiring incineration, waste that not be incinerated and radioactive waste. Incineration
of clinical waste will form the formation of CO2, H2O, SOx, POx, HF, HCl, HBr, I2.
Also present are metal oxides and traces of unburnt waste.
Much attention is directed toward concentrations of oxides of nitrogen (NOx)
and sulphur (SOx), hydrogen chloride, particulates, dioxin and furan in the gaseous
emissions from clinical waste incinerators (Blenkarn, 1995).
The ash and other residue from the incinerator are to render harmless before
final disposal. These wastes are also classified as schedule wastes and have to be
managed as stipulated in the Environmental Quality (Scheduled Waste) Regulation
2.6 Act and legislation
In Malaysia, there are some acts related to clinical waste. The Department of
environment of Environment (DOE) is empowered under the Environmental Quality
Act 1974 to control and prevent pollution and to protect and enhance the quality of the
A set of regulations dealing with hazardous waste management which regulates
the storage, transport, treatment and disposal of hazardous wastes on May 1989:
Environmental Quality (Schedule wastes) Regulation, 1989;
Environmental Quality (Prescribed Premises) (Schedule Wastes Treatment
and Disposal Facilities) Regulation, 1989; and
Environmental Quality (Prescribed Premises) (Schedule Waste Treatment
and Disposal Facilities) Order, 1989;
The Environmental Quality (Schedule Wastes) Regulation, 1989 prescribed a
listing of 107 categories of hazardous wastes defined as "schedule wastes". The wastes
are grouped into specific and non-specific sources. Clinical waste is categorized as
schedule waste from non-specific source, N261 - "Pathogenic and clinical waste and
quarantine materials". The regulations specify the following requirements
Scheduled wastes shall as far as practicable, before disposal, be rendered
Generation of scheduled wastes shall be reduced using the best
practicable means;
Waste generators to notify the DOE of any schedule wastes generated
and keep up-to-date inventory of scheduled wastes generated, treated
and disposed of;
Scheduled wastes may be stored, recovered and treated within the
premises of a waste generators;
Land-farming, incineration, disposal, off-site recovery, off-site storage
and off-site treatment shall only be carried out at prescribed premise
licensed by the DOE;
Use of durable waste containers with clear labels. Storage of wastes
shall be proper and adequate;
Waste generators shall conform to the requirements of consignment note
system when transporting wastes to ensure it reaches the approved
destination and are carried out b licenses transporter;
Waste generators shall provide information to a transporter regarding the
nature of the wastes transported and action to be taken in case of
The purpose of this regulation is to control the three specific groups
ii) Waste contractors
Under the Environmental Quality (Prescribed Premises)(Scheduled Waste
Treatment and disposal Facilities) Order 1989, six types of premises are prescribed for
which their occupation and use will require a written permission and a licence from
DOE. The premises are:
Land treatment facilities such as sludge farms;
Off site recovery facilities;
Off-site treatment facilities such as centralized physical/chemical
wastewater treatment;
Schedule waste incinerator;
Off-site storage facilities incinerators;
Off site storage facilities including the transport vehicle; and
Secure landfills designated for the disposal of schedule wastes.
Three waste generator companies in Malaysia that is the concessionaire
appointed by the Ministry of Health and have off-site incinerator including
transportation are:
Faber Medi-Serve Sdn Bhd (northern region)
Radicare (M) Sdn Bhd (central region)
Pantai Medivest Sdn Bhd (southern region)
CHAPTER III
METHODOLOGY
To achieve the objectives of this study, a variety of method are used. Besides
that, to get the best information, one has to experience every step from where the waste
is generate to where it will be disposed.
Initial Study
Choosing Hospital Universiti Kebangsaan Malaysia (HUKM) as location for
case study is done because of some factors. HUKM is one of half privatized hospital in
Malaysia where the Government of Malaysia defray half of it expenditure. That is one
of the factors because previous studies were done at full privatized and full government
hospital. Besides that, HUKM is a new-built hospital and opened on 1 July 1997. In this
condition, this study will look for any new and more practical aspect of management
and disposal on clinical waste. Therefore the infrastructure, devices, human resource
and physical infrastructure will be observed.
Method of study and getting the information
Main data
Main data is defined as data from the study done. In order to get the information
related to clinical waste, two basic methods are used.
3.2.1.1 Site visit
Department of Engineering HUKM and Radicare (M) Sdn Bhd is the main
source of information about management and disposal of clinical waste. Every section
of the department has it own specialties. By visiting, data on background of clinical
waste management system, number of disposal sites, transportation method, health
worker involved can easily found and understood.
A visit to Radicare (M) Sdn Bhd incinerator located at Teluk Panglima Garang
and waste disposal site at Kualiti Alam Sdn. Bhd. located at Bukit Nenas, Port Dickson,
Negeri Sembilan is done. This dispoal sites is the final place for disposal clinical waste
in order to practice the safe disposal method.
3.2.1.2 Interview
Interviewing can collect more information on management and disposal of
clinical waste. By interviewing, the explanation can give more understanding rather
than referring to books. The officers will explain more on every element on managing
the clinical waste and the health workers will explain more on technical information on
their daily job. All the data of management and disposal of clinical waste is than
compared to guidelines and act that relate to it.
Interviewing method is used because it is the best method of getting the correct
data. Other method such as questionnaire is not appropriate for this study because it is
not very effective since number of health-worker in Radicare (M) Sdn Bhd is small.
Beside that, by using questionnaire, problem of getting responses can occur.
3.2.1.3 Comment on document
While interviewing, there might be some explanation on some document. This
type of document is important in achieving the main objectives on this study. Expected
documents are organization chart, forms, scopes of work, safety guidelines and many
3.2.2 Secondary data
Secondary data are data from other studies or from other sources. The data is
used to report what other researcher do and the approach they use. It can be divided into
two, printed or non-printed data. For printed data, references were taken from journals,
research papers, conference papers and collective edition. Non-printed data is an
unpublished data, for example the sources from database and Internet. Although
Internet is not a reliable sources in long term, but using it to search for other data is
good. By using database, plenty of useful e-book is ready to be searched and referred.
3.3 Data analysis
All the data is arranged, processed and analyzed for making some good
recommendations on management and disposal of clinical waste. Further more, data
analyzing is important to achieve the objectives that were set earlier.
Expected results
From the observation and study that will be done later, it is expected that the
management and disposal of clinical waste at Hospital Universiti Kebangsaan Malaysia
(HUKM) be in good condition. This is because; this newly established hospital is
expected to have latest and absolutely efficient technology.
The important elements in management and disposal of clinical waste are
perfectly practiced without giving bad effect to the health workers, public and
It is also believe that HUKM will follow the procedures and guidelines stated in
related act discussed in the literature review.
CHAPTER IV
RESULTS AND DISCUSSIONS
Privatization of Hospital Support Service in Malaysia started on 1st January
1997 where (3) three major companies were awarded the concession. The concession
period is (15) years and each of this company is responsible to provide Hospital
Support Service to every hospital in Malaysia according to the region. The objectives of
privatization are to improve efficiencies of all hospitals and to provide Quality Health
Service to public.
Radicare (M) Sdn Bhd (RMSB) is the concessionaire company appointed by
Ministry of Health to provide support services to government hospitals in the region of
Selangor, Wilayah Persekutuan, Pahang, Terengganu and Kelantan. Besides
government hospitals, RMSB also having contacts on (9) nine medical institution on
providing support services including Hospital Universiti Kebangsaan Malaysia
(HUKM) Pusat Perubatan Universiti Malaya (PPUM) and Hospital Universiti Sains
Malaysia (HUSM). RMSB provides hospital support service on clinical waste
management, facility engineering maintenance, biomedical engineering maintenance,
linen & laundry and cleansing.
For this study, case study on management and disposal of clinical waste in
HUKM is highlighted. HUKM under Department of Engineering has given every two
years of contract for Radicare (M) Sdn Bhd only on clinical waste management. Scopes
of service on clinical waste management are:
Supply of consumables
Wheeled bin for central storage and transportation
Collection and transportation of clinical waste on daily basis or as
Provide dedicated vehicle
Incineration plant
Consignment note
ORGANIZATION STRUCTURE
HUKM is one of the teaching hospitals in Malaysia that provides secondary and
tertiary treatment service. Same as PPUM and HUSM, HUKM also provides the best
medical services. Besides, HUKM is one of the first hospitals in Malaysia using
information technology approach entirely in its operation. This hospital is complete
with the capacity of 1054 bed, 700 medical students and 600 postgraduate students.
Located at Jalan Tenteram, Cheras; HUKM is built on 55 acres land is the new
campus for Faculty of Medical UKM that replace the old campus at Hospital Kuala
In HUKM, a structured organization is developed specially to control and
ensure clinical waste management. This organization consists of :
Civil Engineering Head of Department
Nurse Supervisor
Radicare (M) Sdn Bhd Supervisor
Radicare (M) Sdn Bhd Porters
4.1.1 HUKM
Director
In this organization, HUKM Director is the officer responsible on hospital
administration. He is also responsible to Ministry of Health Malaysia as performance
officer to ensure every clinical waste management is properly done every waste
disposal procedure is done according to the related act. In Environment Quality Act
1989 (Schedule Waste), it is the Director responsibility on reporting any illegal
practices or disobeys the related act on clinical waste management element.
4.1.2 Head of Department of each ward and clinic
Their responsibility in each ward and clinic is to remind the medical personnel,
technical personnel and nurses the awareness on managing clinical waste.
4.1.3 Nurse Supervisor
Nurse Supervisor is fully responsible on segregation system and waste storage in
the ward. They must make sure the stocks of clinical waste plastic bags and sharps
container is enough in 3 days. If it is not enough, a complaint to Radicare (M) Sdn Bhd
Supervisor should be made.
4.1.4 Radicare (M) Sdn Bhd Supervisor
Radicare (M) Sdn Bhd Supervisor is the officer send by their company and
responsible directly on daily clinical waste management. He must take care on every
porters activity on collection, loading to temporary storage. Plus, he is responsible on
safety steps taken for any emergencies and ordering ‘consumables' from his company main
Chart 4.1 : Clinical Waste Management Service for Radicare (M) Sdn Bhd
IMPORTANT ELEMENT OF CLINICAL WASTE MANAGEMENT
4.2.1 Identification
Identification of clinical waste is the first in activity clinical waste management.
Waste identification is important because of hazardous and infectious nature will
continue to threaten every person. By identifying the waste, the health workers can
continue the activity safely without fear of infectious effect of clinical waste. Radicare
(M) Sdn Bhd have categorized clinical waste into 5 (five) groups.
Table 4.1: Category of clinical waste
• Soiled surgical dressing, cotton wool,
gloves, swabs and all other contaminated
waste from treatment areas, plaster and
bandaging which have come into contact
with blood or wounds, cloth and wiping
material used to clean up body fluids and
spills of blood.
• Material other than linen from cases of
infectious disease (e.g. human biopsy
material, blood, urine, stools).
• All human tissue (whether infected or
not), limbs, placenta, animal carcasses and
tissue from laboratories and all related
swabs and dressings.
• "Sharps such as discarded syringes,
needles, cartridges, broken glass, scalpel
blades, saws and any other sharps
instrument that could cause a cut puncture.
• Clinical waste arising from laboratories
(e.g. pathology, hematology and blood
transfusion, microbiology, histology) and
post mortem room waste, other than waste
included in Group A.
• Pharmaceutical wastes such as expired
drugs, vaccines and sera, including
expired drugs that have been returned
from ward, drugs that have been spilled or
contaminated, or are to discarded because
they are no longer required.
• Cytotoxic drugs
• Used disposable bed-pan liner, urine
containers, incontinence pads and stoma
Table 4.2: Name of wards in HUKM, Cheras
Source : HUKM, Cheras
Pediatric Ward 1, 2 and 3
Ear, Nose and Throat Clinic
Oftalmology Clinic
Orthopedic Ward
Endoscopy Clinic
Basically, every ward and clinic in HUKM will generate the same type of waste.
The two most generated waste are ordinary clinical waste and household waste. Clinical
waste are generated by the health worker such as doctors and nurses. Household waste
comes from other sources, for example food waste from patients and visitors who come
for the purpose of visiting the patients and food wrappers.
Months in 2004
Figure 4.1: Clinical waste generated in HUKM, Cheras
Source : HUKM Cheras
4.2.2 Segregation and Operation
From the interview, it is known that segregation is the most important element
in managing clinical waste. By adding the clinical waste and household waste together,
the waste status will change to clinical waste and have to be treated exactly as clinical
waste. This is stated under Environment Quality Act (Scheduled Waste) 1989.
Furthermore, this practice will only increase the fee for the waste treatment.
Segregation process started when used clinical equipment are thrown away. The
basic clinical wastes generated in every ward and clinic at HUKM are used syringe,
cotton, gauze, dressings contaminated with blood, purulent exudates and IV sets.
According to RMSB Management Guidelines, standard code of colour is used
to every plastic bag and plastic container for clinical waste. Each of the plastics must
have biohazard symbol (Figure 4.3) and this action is already stated under
Environment Quality Act (Scheduled Waste) 1989 in Third Schedule, (Regulation 8).
Clinical waste to be disposed by incinerator
Clinical waste from highly risk disease
Figure 4.3: Biohazard Symbol
Yellow plastic bags are not allowed for use for other purposes in any
circumstances basically to prevent any confusion in managing clinical waste. It is the
same thing to other plastic bags. Light blue plastic will not be provided daily like
yellow plastics. For clinical wastes that come from highly risk diseases i.e AIDS,
Hepatitis B, Hepatitis C the nurses will contact Radicare (M) Sdn Bhd to provide light
blue plastic bags to the ward. It will be sterilized in autoclave machine for 24 hours
before disposed to incinerator.
Equipment used for clinical waste in wards and clinics is yellow in colour with
biohazard logo printed on it. They are pedal bin, wheeled bin, sanitary bin, plastic bag
and sharp container. The location of the equipment is different depending on demand
and suitability.
The effectiveness of segregation starts at the beginning of clinical waste
generation. For that, it is the nurses and health-workers full responsibilities. They are
responsible to make sure that all clinical waste generated is isolated from household
waste and only disposed in the yellow plastic bags provided.
They are also responsible to make sure that the clinical waste capacity of each
plastic is three quarter full. After that, it is the porter's responsibilities to seal it in a
proper way. In manual clinical waste operation, the opening of each the equipment
must be in the condition where it is easy to enter the waste. Besides, in any situation,
the operation with the equipment must only be done by the handle or neck. Less manual
operation on plastic bags of clinical waste is preferred.
Every full plastic bags containing clinical waste should be sealed using ordinary
plastic band or by usual tie-up. It is forbidden to use stapler for sealing the plastic bags
because of the piercing action onto the plastic bags. Plus, it will contribute to odor
The main duty of the porters is to carry and collect each of the full plastic bag.
After collecting, it is their duty to provide new plastic bags at the bin. Size of the
plastics provided varies according to the source of waste generated. The best location
for temporary storing is the place nearest to where it is generated. It is a good practice
to place clinical waste far from public passages.
At HUKM, Radicare (M) Sdn Bhd has provided eight porters consisting of six
men and two ladies for this duty at the location according to their daily duty. Collection
is done three times a day. They begin carrying and collecting at 8.30 a.m. Then they
continue at 2.30 pm and 6.00 pm. Collection frequency depends on the need and
Table 4.3 : Collection frequency of clinical waste in HUKM
Source: Radicare (M) Sdn Bhd
Wards/Clinics
Collection Frequency (times)
Pediatric Ward 1, 2 and 3
Medical ward / Emergency Room
Orthopedic Ward
Ear, Nose and Throat Clinic
Endoscopy Clinic
4.2.2.1 Yellow clinical waste plastic bags
The use of plastic bags is considered the most convenience and cheap in clinical
waste management. As mention earlier, plastic bags is only for non-sharp waste. The
plastic bags used by RMSB fulfill the required standard in BS 6642 : 1985;
Specification for Disposable Plastic Bags From Polyethylene Material.
Standard of the plastic bags is stated below:
a) The plastic bag thickness is at least G 225 (55micron) for less density
waste and at least G 100 (25 micron) for higher density waste.
b) The plastic bag from ‘high density polyethylene' and not easily punctured.
c) The plastic bags must hold to autoclaving process
d) The plastic bags must yellow in colour
e) For clinical waste that will be disposed using incineration technique,
every plastic bag is printed clearly with "SISA KLINIKAL UNTUK
DILUPUSKAN MELALUI PENUNUAN/ INCINERATOR" together
f) "KEMENTERIAN KESIHATAN MALAYSIA" sign must also be
printed clearly.
g) Standard infectious/clinical waste sign must also be printed where the
symbol of three crescents arranged overlapping a black circle with white
background. The size of every biohazard symbol must not be less than
4.2.2.2 Blue clinical waste plastic bags
The examples of waste that use autoclaving bags are human tissue from surgery
ward, placenta from labour room and waste infectious disease treatment. Standard
infectious/clinical waste sign must also be printed where the symbol of three crescents
arranged overlapping a black circle with white background. The size of every biohazard
symbol must not be less than 50mm x 50mm. "KEMENTERIAN KESIHATAN
MALAYSIA" sign must also be printed clearly.
This bag must in light blue colour and transparent. The thickness of each plastic
is 55 micron and can hold out the temperature of 132 degree Celsius and not easily
punctured. It will go through autoclaving process.
4.2.2.3 Method of using clinical waste plastic bags
a) The loading for each bags is not more than ¾ full
b) The bags are closed by using ordinary plastic band or by usual tie-up.
c) The porters then put every full bag into wheeled bin.
d) A new plastic bag is provided to the bin.
e) Wheeled bin containing full clinical waste will be then taken away to
temporary storage.
Figure 4.3 : Yellow clinical waste plastic bag
Figure 4.4 : Blue clinical waste plastic bags
4.2.2.4 Sharps container
Syringes, needles and cartridges should be discarded intact and placed
in suitable sharp containers, which should be sealed when full and enclosed in a yellow
clinical waste bag before collection and disposal. Plastics or other fiber material makes
sharp container together with plastic lining outside it. It comes with different sizes of
Every sharps container must follow these specifications:
a) The container must have handle and the location of handle must not
interfere when using it.
b) The container must have high durability, puncture-proof, and leakage- proof
whether in upside down condition.
c) Can be taken away without feeling anxious the waste may spill or come out.
d) The opening must close tightly and safely when the waste has reached three
quarter full of the container as marked outside the container.
e) The opening must close tightly during transportation
f) The container material can be burned in the incinerator with biohazard logo
printed outside it.
Figure 4.5 : Sharp container
4.2.2.5 Pedal bins, 15 kg wheeled bins and 660 liter wheeled bins
A pedal bin is a kind of bin where it has foot pedal to open the bin cover. The
porter provides the bin with yellow plastics. The (3) three basic pedal bins situated in
every HUKM wards and clinics are 20 L bag holder, 50 L bag holder and 20 L sanitary
The 15 kg wheeled bins and 660 liter wheeled bins are always used together
for transportation purposes. When on duty, every porter will bring 660 liter wheeled
bins to the ward and clinics. After it is full, the porter should bring down the bins to
Radicare (M) Sdn Bhd situated at HUKM to transfer the collected clinical waste into
the 15 kg wheeled bins for weighing process.(APPENDIX A)
Figure 4.6 : 50 L bag holder
Figure 4.7 : 660 L wheeled bin
4.2.3 Internal
The next step of managing clinical waste is transportation. It can be divided into
two types, internal transportation and external transportation. External transportation
will be discussed later on the next sub-section.
Radicare (M) Sdn Bhd has enough equipment for this purpose. The equipment
use for internal transportation is 660 liter wheeled bin. This wheeled bin is covered to
protect the porters and public from waste spills and smelly odour. The porters are
responsible to collect clinical waste from every ward and clinics in HUKM. For
example, the collection at pedal bin that is located in every corner of the ward and the
clinical equipment store next to the ward.
The porter starts their duty by entering every ward or clinic according to their
weekly duty rosters. With complete facemask, apron, gloves and shoes, the porter will
collect clinical waste in pedal bin and sharp containers. After that, they will gather all
yellow plastic bags and sharp containers in one storeroom at the same level of the
According to RMSB, it is prohibited for the porters to transport any clinical
waste at public passages. To prevent this, the storeroom in every ward and clinic will
have a small opening for clinical waste. This opening come complete with inside and
outside door and is designed to follow RMSB scope of work and to prevent any
disruption by anyone who is not related to clinical waste transportation. The other side
of this opening is the public passage where the porter has already placed 660-liter
capacity wheeled bin to place the plastic bags and sharp containers.
The porter will place every full yellow plastic bag in this opening and close it.
After finish collecting and placing the waste in the small opening, they will go out to
the public passages to collect back every yellow plastic placed at every small opening.
The porter will do the same activity in every floor at HUKM wards.
In HUKM, a special elevator is constructed for goods transportation. The
porters will use this elevator and bring along the 660 liter wheeled bin with yellow
plastic bag containing clinical waste to Radicare (M) Sdn. Bhd branch in HUKM for
the next process.
Figure 4.8: Small opening for internal transportation of clinical wast
Figure 4.9: The other side of clinical waste small opening
4.2.4 Temporary Storage
After collecting the entire clinical waste generated in HUKM, it is important to
provide a proper storage for it. The function of having temporary storage in managing
clinical waste is to provide a place where the waste can be stored temporarily, safely
and easily for inspection.
The storage is placed far from canteen, other stores, and public passage. It also
must also have good air circulation. This area must always remain locked when no
clinical waste storage activity happen. For transportation purposes, the storage must
easily entered by the vehicle that will specially transport it to the incinerator located at
Teluk Panglima Garang, Selangor.
Before deciding the dimension of temporary storage, there are some factors to
be considered. The collection frequency is the most important. In HUKM, Radicare (M)
Sdn. Bhd have decided that clinical waste collecting activity starts at 8.30 a.m., 2.30 pm
and 6.00 pm daily. Other considerations made on clinical waste temporary storage are
number of public holiday weekly and probability of having difficulties in collection.
Radicare (M) Sdn. Bhd had provided a large storeroom for this purpose. Storage
capacity is for 3 days of collection and minimum of 2 days for storage. The container is
locked to make sure that the wheeled bin is safe while waiting for transportation to
incinerator. It can store up to 40-wheeled bin with capacity of 15 kg of each bin. In
order to prevent bacteria from breeding and odor problem, the container is installed
with air conditioned system. The temperature is maintained at 4 to 6 degree Celsius.
Outside of the container is marked by biohazard symbol and N-261 as waste category.
It is the porter's duty to clean the container weekly. Radicare (M) Sdn Bhd has
provided all equipment for cleaning and personal protective equipment (PPE) such as
gloves, safety boots, apron and mask if any leakage happened during the storage.
Figure 4.10 : Front view of temporary storage
Figure 4.11 : The porter taking collected clinical waste to temporary storage
4.2.5 External Transportation
Well-designed vehicle with suitable criteria is used for external transportation.
This vehicle is definitely different from solid waste vehicle. The inner space of the
vehicle storage is layered by stainless steel and aluminum to give smooth surface for
cleaning purposes. Every hole and pores inside it must be closed to prevent the waste
from sticking and left behind when unloading and cleaning process. The vehicle cannot
be used for other purposes. It is always provided with all equipment for cleaning and
personal protective equipment (PPE) to clean the storage after several processes of
loading and unloading the waste.
In HUKM, Radicare (M) Sdn Bhd will send a vehicle from the incinerator plant
located at Teluk Panglima Garang, Selangor to collect clinical waste daily. The vehicle
will come to Radicare (M) Sdn Bhd branch in HUKM at 11.00 am. The driver will
bring along empty 15 kg wheeled-bin. After arriving to HUKM, the driver will unload
the empty wheeled-bin. After he had finished, the porter unloads the wheeled bin from
the temporary storage.
The time taken to deliver clinical waste from HUKM to Radicare (M) Sdn Bhd
incinerator at Teluk Panglima Garang, Selangor is 45 minutes. There are several
guidelines for the driver when delivering the clinical waste.
It is estimated that the time for delivering from HUKM to incinerator is
45 minutes, so for any delays, the driver must inform the officer.
The driver is prohibited to leave the vehicle used in any circumstances.
It must directly send to the incinerator.
The contractor must choose safe
by avoiding highly population
residential area, water bodies and sensitive areas
Figure 4.12 : Vehicle loading with clinical waste using 15 kg wheeled bin
Figure 4.13 : Side view of vehicle used in external transportations
4.2.6 Documentation
Clinical waste is one of schedule wastes listed in Environmental Quality
(Schedule Waste), Regulation 1989. According to it, every matter of documentation for
clinical waste transportation must follow the regulation. It requires an inventory to be
kept and a consignment note system to be used for transport of waste from the hospital
to an approved facility.
Consignment note records the details of the waste generator (HUKM), the
rt contractor and the final receiver (Radicare (M) Sdn Bhd) together with the
information on the clinical waste being transported. An inventory provides an accurate
and up-to-date record of the quantities and categories of clinical wastes being
generated, treated and disposed of. The respective parties should retain the record for a
period of three years.
The consignment note or form is design to record the name of the hospital,
e and signature of the officer who responsible in the hospital, quantity of waste
generated, name of driver and signature. The steps on consignment note procedure in
hospital level are:
very collection done by the driver,
the clinical waste weight must be
calculated and recorded in consignment note. It must be filled in 7
(seven) copies where a copy is kept by HUKM, a copy to Ministry of
Health, a copy to Department of Environment and balance of 4 (four)
copies are taken by the driver to the incinerator (Radicare (M) Sdn Bhd)
After arriving at the incinerator, every information on the consignment
written down on the consignment note will be signed by the incinerato
operator. The operator should return back a copy to the driver.
After all the waste is disposed at Kualiti Alam Sdn Bhd, the operator
will send a copy to Department of
Engineering at HUKM, De
of Environment and a copy for record at the incinerator
The information of consignment will be used by Radicare (M) Sdn Bhd to get
monthly statistics for annual report or for any future planning. Example of consignment
note is in Appendix C.
CLINICAL WASTE TREATMENT AND DISPOSAL
After 45 minutes journey from HUKM, Cheras to Teluk Panglima Garang,
Banting; the collected clinical waste is now ready for treatment. Radicare (M) Sdn Bhd
only provide incinerator for treatment of clinical waste.
Table 4.4 : Clinical waste composition
Waste Type
% WT (Wet Basis)
Miscellaneous 10
(RMSB,2004)
Next, the ash and other residues comprising mainly deformed metallic such
blades, scalpel and needles from the incinerator are to render harmless before final
disposal. These wastes are also classified as schedule wastes and have to be managed as
stipulated in the Environmental Quality (Schedule Waste) Regulation 1989.(Lee, 2001)
The incineration system used in Radicare (M) Sdn Bhd in Teluk Panglima
Garang is ‘Rotary Kiln with Waste Heat Boiler Incinerator'. It started operation in
1998 with a cost of RM 17.2 million. It is controlled automatically with combustion
capacity of 500 kg/hr or 12 ton/day. This total up to 7000-8000 kg of waste treated
daily. In daily operation, this incinerator plant is operates 24 hours a day with 3 shift of
group worker.(RMSB,2004)
If it is practiced correctly, it can destroy all pathogenic microorganisms and
harmful gaseous. It was admitted from the clinical waste disposal practitioner that
incineration is the best-disposed method if the plant is well built and operate at very
high temperature as suggested.
Treatment Technique
Basically, the incinerator in Teluk Panglima Garang has four different stages
PPENDIX B)
. Each of the stages is designed to convert solid waste into gaseous,
liquid and solid while reducing environmental impact of the incinerator. The stages are:
Charge End (Feeding)
Pollution Control
.3.1.1 Charge End (Feeding)
The first step is where the workers load the 15 kg wheeled bins that contain
clinical waste into skip loader. Only two bins can enter in one time. Then, the waste is
discharged into hopper. The feed conveyor is then used to move the waste into ram
feeder. After that the ram head will push the waste into rotary kiln for incineration.
Figure 4.14 : Loading waste in the wheeled bin into Cart Elevator
Figure 4.15 : Waste loaded into Hopper
Figure 4.16 : Waste loaded in Hopper
Figure 4.17 : Waste flow in Charge End Process
4.3.1.2 Thermal Stage
The thermal stage consists of Primary Combustion Chamber (PCC) and
Secondary Combustion Chamber (SCC). Major difference between each combustion
chamber is the final product. The waste must first enter PCC and then SCC.
PCC is using Rotary Kiln for the first incineration stage. The retention time of
gas waste is 1 second and solid waste is an hour. Rotary Kiln is insulated with castable
or fire brick that can hold the temperature of 760ºC to 900ºC. To complete the
combustion, 130% to 150% of excess air is required. This combustion chamber uses
diesel as fuel. Final product of PCC is Bottom Ash. It will be send to Kualiti Alam Sdn
Bhd (KASB) for final disposal. Waste gas from PCC will be treated through SCC to
disperse dioxin and furan at 1000ºC.
SCC use Vertical Tower as method of incineration. The function of SCC is to
disperse dioxin molecule at 1000 C. The gas retention time is 2.2 seconds with air
requirement of 130% to 150%. This tower can hold 982º C to 1149º C of operating
temperature. SCC also use diesel to operate. These operating conditions are maintained
to ensure complete combustion of the waste material. The final product are Acid gas,
Dioxin, Heavy Metal particle etc.
Figure 4.18 : Rotary Kiln
Refractory (Castable or fire brick)
Solid Phase (Slag)
Figure 4.19 : Schematic PCC process
Figure 4.19 : SCC Tower
Temperature = 982 – 1149 deg C
Emergency Vent-cap
Waste Heat Boiler
Figure 4.20 : SCC flow
4.3.1.3 Heat Recovery Stage
In this stage, hot air from SCC-Down Leg will enter Waste Heat Boiler. Waste
Heat Boiler is a cooling media to reduce the temperature of hot air. Radicare (M) Sdn
Bhd incinerator uses excess steam from this stage to wash wheeled bins as a waste
Figure 4.21 : Waste Heat Boiler
4.3.1.4 Pollution Control stage
Air containing toxic and acid gas from Heat Recovery Stage is treated using
powdered lime and carbon. Hydrated powder lime, Ca(OH)2 will neutralized acid gas in
recommended reacting temperature of 160ºC to 180ºC. Activated carbon is used to treat
heavy metal content. The chemical reaction is stated below
2HCl + Ca(OH)2 CaCl2 + 2H2O
Fly ash is the side product of this stage and the final product is clean gas. The
air emission standards imposed by the Department of Environment are shown in Table
Table 4.5 : Air Emission Standards for Clinical Waste Incinerator.
Ringleman Chart No. 1
Dioxin and Furan
Hydrochloric Acid
Source : DOE
All ashes are collected through Bag House Filter before releasing the gas to the
atmosphere. The ash produced is considered as schedule wastes and need to be
disposed at a licensed facility. Then, the collected ashes are send to Kualiti Alam Sdn
Lime and Activated Carbon Injection
Figure 4.22 : Pollution Control activities
Cooling Air Injection
Figure 4.23 : Pollution Control area
Figure 4.24 : Lime and Activated Carbon Injection area
Figure 4.24 : Bottom Ash (Slag)
Disposal of treated waste
4.3.2.1 Kualiti Alam Sdn Bhd
Radicare (M) Sdn Bhd (RMSB) has signed an agreement with Kualiti Alam Sdn
Bhd (KASB) for disposal of bottom ash (slag) from incinerator. KASB was
incorporated on 9 December 1991 and becomes Malaysia's first integrated waste
management system centre. The integrated project with the capital cost of RM 300
million will manage variety of hazardous waste including clinical waste in Malaysia.
The company is having special rightful authority for 15 years of operation.
(APPENDIX D). Some of the facilities in KASB located at Bukit Nenas, Negeri
Sembilan are incinerator, physical-chemical treatment plant, leachate treatment plant,
stabilize pond, secured landfill, disposal and movement of schedule waste especially in
Malaysia using licensed mechanism and information system of consignment.
However, when the system has been fully implemented, it might be feasible
both economically and in terms of safety to establish secure landfills in other states. For
the collection of wastes from areas futher away from the integrated facility, collection
(transfer) stations will be established. The collection stations are located at Johor, Pulau
Pinang and Terengganu. By sitting the collection stations in the major toxic waste
producing areas, the transport distance from the waste generators to the collection
stations will be reduced. (APPENDIX E)
4.3.2.2 Secure Landfill of KASB
The slag or bottom ash arrived from RMSB incinerator at KASB will be
disposed at secure landfill. Secure landfill is the final destination for every schedule
waste such as metal hydroxide sludge, used catalyst, asbestos waste, mineral sludge,
other less dangerous schedule waste, fly ash or residue and slag form incineration.
Two types of landfill in KASB are secure landfill and asbestos landfill. Every
waste buried here is in solid or semi-solid according to Department of Environment
Malaysia. It is well designed to prevent any pollution to water table by using 1 meter
thick of compacted clay layer. The compacted clay is layered with Geomembrane High
Density Polyethylene (HDPE) and Geonet. The drainpipe system is used to collect
leachate to retention pond. Leachate from the retention pond must comply Standard B,
Third schedule, Environmental Quality (Sewage and Industrial Effluents) Regulation
4.2.2.3 Method of disposal
Types of ash packaging from RMSB incinerator are plastic bags. Below are the
method practiced in KASB for disposal.
Stabilized waste is covered with clay after the waste layer reached 2
After each cells became full, it must be covered with geomembrane liner
that can prevent infiltrate water. At the top of geomembrane is layered
with soil for the purpose of growing herbaceous plant to prevent erosion.
Separate drainage system for collecting rain is built around secure
Slope landfill area is needed for runoff flowing to retention pond.
Leachate at any liner must not exceed 30cm from the liner level.
CHAPTER V
CONCLUSIONS AND RECOMMENDATIONS
Conclusions
From the observation made by site visiting, explanation and interview whether
from the hospital or incinerator, a conclusion can be made. The management and
disposal of clinical waste is good condition.
Every personnel that is responsible for clinical waste management know their
responsibility and scope of work. They have attended several courses by Radicare (M)
Sdn Bhd (RMSB) on handling clinical waste and they must wear apron, gloves, mask
and safety shoes while at work. For safety purposes, they are given immunization
vaccination on tetanus, hepatitis A, hepatitis B, cholera and polio.
Looking on management structure on clinical waste at HUKM, it is well-
organized and very systematic. Beginning from HUKM Director to the RMSB porters,
they belong to different companies. If there is any disruption or problem on daily
routine, one company can make complain to another company. For example, there is a
case that happened in one of the wards of HUKM, a trainee nurse have wrongly thrown
used syringe into 50-liter bag holder. When the porters comes to ward for clinical waste
collection, he had punctured himself accidentally the needle when carrying the yellow
plastic bags. In this case, RMSB can complain to HUKM Director and Nurse
Observation on identification of waste at HUKM is good and well organized.
Every staff knows and understands the purpose of having yellow and black plastic bags.
Clear label at each equipment also give useful information to the visitors. In every ward
and clinic, segregation activity is clear and well practiced. Usage of sharps container
and bag holder is wide because RMSB have provided enough equipment in every ward
In terms of clinical waste transportation, RMSB have provided good
transportation guidelines that have to be followed by every porter. It is forbidden to
bring clinical waste near to anybody in the hospital. A small opening located at every
ward is the solution to prevent exposure of clinical waste to public. Another solution is
by using special elevator. Besides, the equipment used for this clinical waste
management element is made from puncture-proof material.
Collected clinical waste from wards and clinics is stored in temporary storage
located near RMSB branch office at HUKM. The storage is air conditioned and
complete with weighing equipment for clinical waste. It is also complete with cleaning
material for any spillage in or outside the temporary storage. It complies with the
Ministry of Health regulations.
RMSB is applying ‘Manifest System' in documentation system of clinical
waste by using consignment note. The main reason of using the system is to make sure
all the amount of waste arrived at RMSB incinerator is the same amount of waste
generated in HUKM. Information on each consignment note is important for future
External transportation system is in good condition for several factors. The
RMSB guideline on external transportation is clear on preventing environmental hazard
and public health. Steps if spillage or accidental discharge during transportation occurs
is understood by the driver and it also fulfill the Act.
Disposal of clinical waste generated at HUKM is done at RMSB incinerator
located at Teluk Panglima Garang, Banting. It is situated in Teluk Panglima Garang
Industrial Area and very far from residential area. The operation is done carefully and
systematically. Overall operation of this ‘Rotary Kiln with Waste Heat Boiler
Incinerator' is environmentally protected since it is using bag house filter.
5.2 Recommendations
Even though every process on management and disposal of clinical waste is
good and very effective, the number of porters in clinical waste collection at HUKM is
not enough. Less number of porters will decrease the efficiency of collecting the waste
since the waste is infectious and need to be collected more often. Taking legal foreign
workers from Indonesia and Bangladesh can solve this problem
It will not do any good if the are porters not taking care of their own safety. By
observation, most of the porters are not wearing proper mask and shoes. In government
hospital, there is a special body in monitoring clinical waste management. Since
HUKM is half privatized hospital, no special observation or monitoring is done. It all
depends on RMSB guidelines and supervisor. A body or an officer from Department of
Engineering, HUKM is needed for this purpose.
This case study is done at Hospital Universiti Kebangsaan Malaysia, it means
that this case study can cover other half privatized and full-privatized hospital that
managed by RMSB.
Hence a case study is suggested on Tongkah Medivest Sdn Bhd, a company that
manages clinical waste in southern region of Peninsular Malaysia consisting on Negeri
Sembilan, Melaka and Johor. A consideration between privatized, half privatized or
government hospital in this region is preferred.
REFERENCES
Collins C. H.(1991),"Treatment and disposal of clinical and laboratory waste".
Medical Laboratory Sciences, 324-331
Frank L. C Jr, Howard E.H and Rykowski P.K (1990), "Infectious Waste
Management". Technomic Publishing Co Inc, 18-19
Ibrahim Shafii, (1998), Schedule Waste Management in Malaysia, Seminar
Kejuruteraan Awam (SEMKA '98), Jabatan Alam Sekitar, Kuala Lumpur
Jamaludin M. J, (1998), Environmental quality management: what the local authorities
can do in National Review on Environmental Quality Management: Towards
the Next Two Decades, ed. M.N. Hassan, I. Komoo and L.A. Abdullah,
Universiti Kebangsaan Malaysia
J.I Blenkharn, (1995), The Disposal of Clinical Wastes, Journal of Hospital Infection
1995, Department of Infectious Diseases and Bacteriology, Royal Postgraduate
Medical School: 514-520.
Kane A, Lloyd J.Zaffran M, Simansen L, Kane M, (1999) Transmission of Hepatitis B,
Hepatitis C and human immunodeficiency viruses through unsafe injections in
the developing world: model based regional estimates, Bulletin of the World
Health Organization, 77(10): 801-807
Lee Heng Keng, (2001), Impak-Quarterly Bulletin of the Department of Environment
(DOE), 4/2001, Department of Environment, Malaysia
RMSB, (2004), "CWMS Presentation to CEO", Radicare (M) Sdn Bhd.unpublished.
Theodore, Louis and Reynolds, Joseph(1987). "Introduction to hazardous waste
incineration". John Wiley & Sons
APPENDIX A – Equipment used for HUKM for clinical waste
Purposes
Location
Capacity
Equipment
Sharp container - Special container for sharps - Special store
- 4 different sizes
- Is a disposable container that ward
will burn straight away after it
During waste picking-up
in from every ward and
put in it. Then it goes to
- Bin for used sanitary napkins -In toilets
- Medium size to
- Yellow in colour
- Multiple sizes
- For disposal of other than every ward and
sharps i.e. cotton, rubber
-Yellow plastic with
- 3 different sizes
biohazard symbol
- A layer to the bins for
making it easier to handle
- sterilized in autoclave
machine for 24 hours
before disposed to
APPENDIX B – Stages of Rotary Kiln incinerator
Secondary
Combustion
Combustion
Final Product
Air Pollution
Heat Recovery
(Clean Air)
APPENDIX C – Sample of consignment note
APPENDIX D – KASB license from Department of Environment
APPENDIX E – Transfer station of schedule waste
Source: http://www.efka.utm.my/thesis/images/3PSM/2005/4JKAS/Part2/ZaimasturaAA000666d05ttt.pdf.pdf
Lithium Insertion in Nanostructured TiO2(B) ANTHONY G. DYLLA, GRAEME HENKELMAN, AND KEITH J. STEVENSON* Department of Chemistry & Biochemistry, The University of Texas at Austin, Austin, Texas 78712, United States RECEIVED ON JUNE 12, 2012 to become feasible alternatives to current technology, but only if scientists can develop energy storage materialsthat offer high capacity and high rate capabilities. Chemists havestudied anatase, rutile, brookite and TiO2(B) (bronze) in bothbulk and nanostructured forms as potential Li-ion batteryanodes. In most cases, the specific capacity and rate of lithiationand delithiation increases as the materials are nanostructured.Scientists have explained these enhancements in terms of highersurface areas, shorter Liþ diffusion paths and different surfaceenergies for nanostructured materials allowing for more facilelithiation and delithiation. Of the most studied polymorphs,nanostructured TiO2(B) has the highest capacity with promising high rate capabilities. TiO2(B) is able to accommodate 1 Liþ per Ti,giving a capacity of 335 mAh/g for nanotubular and nanoparticulate TiO2(B). The TiO2(B) polymorph, discovered in 1980 by Marchand andco-workers, has been the focus of many recent studies regarding high power and high capacity anode materials with potential applicationsfor electric vehicles and grid storage. This is due to the material's stability over multiple cycles, safer lithiation potential relative to graphite,reasonable capacity, high rate capability, nontoxicity, and low cost (Bruce, P. G.; Scrosati, B.; Tarascon, J.-M. Nanomaterials for RechargeableLithium Batteries. Angew. Chem., Int. Ed. 2008, 47, 2930"2946). One of the most interesting properties of TiO2(B) is that both bulk andnanostructured forms lithiate and delithiate through a surface redox or pseudocapacitive charging mechanism, giving rise to stable high ratecharge/discharge capabilities in the case of nanostructured TiO2(B). When other polymorphs of TiO2 are nanostructured, they still mainlyintercalate lithium through a bulk diffusion-controlled mechanism. TiO2(B) has a unique open crystal structure and low energy Liþ pathwaysfrom surface to subsurface sites, which many chemists believe to contribute to the pseudocapacitive charging.
University of Missouri - Kansas City Kansas City, Missouri Merl & Muriel Hicklin/Missouri Endowed Chair: Associate/Full Professor, School of Medicine "UMKC is a strong public research university living the values of Education First, Discovery and Innovation; Integrity and Accountability; Diversity, Inclusiveness and Respect; and Energized Collaborative THE SEARCH The Department of Medicine at the University of Missouri – Kansas City (UMKC) School of Medicine invites nominations and applications for the position of the Merl and Muriel Hicklin/Missouri Endowed Chair. The selected candidate must have a passion for teaching, health care delivery, and outcomes research. S/he must have demonstrated the ability to foster collaboration with other academic divisions, sister institutions within UMKC, and local public health organizations. The Department of Medicine is proud of its diverse faculty, and is an equal opportunity employer. Applications from female and minority applicants are welcome. The selected candidate must be a physician at the associate professor level or above with at least 5 years experience and an accomplished investigator and have a record of ongoing grant support in the area of health outcomes research. S/he should also be an effective mentor to junior faculty in the development of outcomes research. THE UNIVERSITY OF MISSOURI -- KANSAS CITY One of the UMKC's major priorities is to lead in the area of Life and Health Sciences. The $35 million Flarsheim Science and Technology Building opened in 2000, and an additional $40 million has been committed to a new health sciences building. Collaborative initiatives, a center for medical research and the drive of public and private partnerships is quickly making the area a national center for science and health research. UMKC is a partner in the Kansas City Life Sciences Institute, a collaborative venture among the metro area's top research institutions and civic groups as well as some Schools and Departments within the University. The University is now moving aggressively to