This document summarizes Shinko Electronics (Malaysia) Sdn Bhd's practices for effective chemical management and occupational safety and health. Shinko Electronics has implemented various controls and best practices for chemical management including engineering controls like local exhaust ventilation systems, administrative controls like training programs, and personal protective equipment. The company also interacts regularly with government agencies and conducts monitoring, inspections, and receives necessary licenses and certifications to comply with regulations. Overall, Shinko Electronics demonstrated a level 5 or excellent implementation of chemical management and occupational safety based on their practices and interactions with external parties.
The document discusses OSHA's Process Safety Management (PSM) program. It begins with an overview of what PSM is and notes that it is a detailed program implemented by OSHA in 1992 to provide uniform rules for specific industries to safely manage highly hazardous chemicals. It then discusses the 14 required elements of PSM, which include processes like process hazard analysis, operating procedures, management of change procedures, emergency planning, and more. It provides details on some of the elements, such as mechanical integrity inspections and contractor responsibilities. The overall document serves to outline OSHA's PSM standard and its requirements.
The document discusses key concepts in industrial safety engineering including the evolution of modern safety concepts, safety policy, safety organization, and accident prevention. It defines important safety terms like accident, injury, unsafe acts, and unsafe conditions. It also outlines the need for safety organizations, safety posters, safety displays, safety pledges, and safety incentive schemes to promote a culture of safety in industrial settings.
This document provides definitions and information related to risk analysis. It defines key terms like hazard, risk, risk analysis, risk assessment, and reliability. It discusses various quantitative and qualitative methods for risk analysis including fault tree analysis, failure mode and effects analysis, and hazard and operability studies. Failure rate data for some process components is also presented. The document provides an overview of important concepts in quantitative risk analysis including reliability, mean time between failures, and interaction between equipment for series and parallel systems. Overall it serves as a reference on the topic of risk analysis, defining key terms and outlining various approaches.
This document discusses OSHA's Process Safety Management (PSM) standard and a grant to provide training on PSM. It provides background on the standard and why OSHA developed it due to past disasters. It outlines the goals of one-day PSM courses being offered which are to understand the PSM standard and how to develop an effective PSM program. The document provides definitions from the standard and discusses requirements around employee participation in PSM programs.
This document discusses OSHA's Process Safety Management (PSM) standard and a grant to provide training on its requirements. It provides background on disasters that led to the standard's creation in 1991. The grant will fund one-day and one-week courses teaching facilities how to understand and implement the PSM elements, including process safety information, process hazard analysis, operating procedures, and emergency response. The document outlines the standard's goals of preventing catastrophic releases and protecting workers and defines key terms.
This document discusses OSHA's Process Safety Management (PSM) standard and a Susan Harwood grant to provide training on PSM. It provides an overview of the goals of the PSM standard and one-day/one-week courses offered through the grant. Key points include: the PSM standard aims to prevent catastrophes from toxic chemicals like occurred in Bhopal; facilities using certain toxic chemicals over threshold amounts are required to comply; and the training courses will help participants understand each PSM element and how to develop an effective program to protect workers and communities.
A chemical accident is the unintentional release of hazardous substances that can harm human health or the environment through fires, explosions, leaks or toxic releases. While chemical accidents can occur anytime toxic materials are handled, the most severe accidents tend to be large-scale industrial incidents. The 1984 Bhopal disaster in India, which killed over 3,000 people, remains the worst industrial accident in history due to a leak of methyl isocyanate gas at a Union Carbide pesticide plant.
Process Safety Management - A Comprehensive Guidesoginsider
This guide offers an overview of Process Safety Management (PSM), an essential system for preventing uncontrolled hazardous material releases. PSM relies on safety in design, engineering controls, and disciplined operating practices. The guide outlines PSM's 14 elements — from process safety information to trade secret protection. According to the Occupational Safety and Health Administration, PSM is about identifying and controlling hazards to prevent accidents. A successful PSM framework includes cultivating a safety culture, identifying and assessing risks, and managing these risks. Two key process safety models include the Swiss Cheese Model and the Risk-Based Model by the Center for Chemical Process Safety. Implementing PSM involves selecting a suitable model (Standards-Based, Compliance-Based, Continuous Improvement-Based, or Risk-Based), fostering a safety culture, and establishing a risk management system. PSM is vital for safeguarding employees, the environment, and communities.
This document discusses the requirements of OSHA's Process Safety Management (PSM) standard. It provides background on the Susan Harwood grant program that funded PSM training. The standard was developed after major industrial disasters to prevent catastrophic releases of hazardous chemicals. It applies to facilities that exceed threshold quantities of chemicals listed in Appendix A. The document outlines the goals and content of one-day and one-week PSM courses available through the Georgia Tech Research Institute. It also defines key terms and requirements of the standard, including developing a team approach, reviewing safety systems, and ensuring employee participation.
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IRJET - Hazard Identification and Risk Analysis in Furnace and Panit ShopIRJET Journal
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CHEMICAL INDUSTRY IN MALAYSIA-CIMAH.pptx
1. Penyimpanan dan Pengendalian Bahan
Berbahaya Mengikut Peraturan CIMAH,96
Section CIMAH, Petroleum Safety Division
Department of Occupational Safety and Health Malaysia
Ir Noorazman Bin Soud
SEMINAR PENGENDALIAN BAHAN KIMIA
MERBAHAYA DAN KERJASAMA
INTER AGENSI SEMASA KECEMASAN
2. Department of Occupational Safety and Health
Content Of Presentation
Introduction on CIMAH regulation 1996
Distribution of MHI and NMHI in Malaysia
Sharing Compilation Data on Major Hazards Accident
Obligation of Manufacturer, Employee, Local Authority, DOSH
Safety Report, ERP, ITP & DOSO
Common Industrial Storage & Operation
Collaboration With Related Agencies
Conclusion
3. Department of Occupational Safety and Health
Introduction
Section 15, OSHA 1994 stated duty of the employer and every self-
employed to ensure, so far as practicable, the safety, health and
welfare at work for all his employees.
In line this section, reg. 5 Control of Industrial Major Accident Hazards
(CIMAH) 1996 – Every manufacturer who undertakes an industrial
activity shall comply with the requirements of these regulation
Being enforce since February 1996
Control of risk related to hazardous substances part of new OSH MP
2020
4. Department of Occupational Safety and Health
Definition & Terminology
Hazardous substance- any substance which is within any of the criteria
laid down in schedule 1 or any substance listed in part 1 of schedule 2
Industrial activity- an operation carried out in an industrial installation
referred to in schedule 4 involving or likely to
involve one or more hazardous substances includes
on site sotrage and on-site transport which are
associated with operation;
Industrial activity- a storage of hazardous substances or preparations at
any place, installation, premises, building or area land,
whether isolated or within establishment, being a site
used for the purpose of storage
5. Department of Occupational Safety and Health
Definition & Terminology(cont.)
‘ major accident’- an occurrence including major emission, fire or explosion
resulting from uncontrolled development in the
course of industrial activity which leads to danger to
persons , whether immediate or delayed or inside or
outside an installation, or to the environment involving one or
more hazardous substance.
‘MH installation’- an industrial activity which produces, processes, handles
, uses, dispose of or stores, whether permanently or
temporary, one or more hazardous substances or
category or categories in quantities which is or
equal to or exceed the threshold quantity.
6. Department of Occupational Safety and Health
Objective of CIMAH
To prevent major industrial accidents
To limit the consequence to people and environment
2 major concern in CIMAH :
Type of hazardous substance Quantity of hazardous substance
Toxic Specify threshold
Flammable Indicative criteria
Explosive
Highly reactive
7. Department of Occupational Safety and Health
Classification of Industrial Activities
NON MAJOR
HAZARD
INSTALLATION
MAJOR
HAZARD
INSTALLATION
EXCLUDED
INDUSTRIAL
ACTIVITIES
TQ
10% OF TQ
QUANTITY OF HAZARDOUS SUBSTANCE
[QHS<10% TQ] [10% TQ<QHS <TQ ] [QHS >TQ ]
REFER TO SCHEDULE 1 AND 2 FOR TYPE AND THRESHOLD
QUANTITY OF HAZARDOUS SUBSTANCE
Note: QHS - Quantity of hazardous substance
TQ - Threshold quantity
NMHI MHI
8. Department of Occupational Safety and Health
46
31
36
62
49
110
10
32
18
59
72
140
24
122
22
47
55
6
12
22
101
20
60
779
297
Up to 14 Mac 2017
Distribution of MHI and NMHI in Malaysia
9. Department of Occupational Safety and Health
Update data until 17 March 2017
Others
Textile Manufacturing
Insecticide mixing
Bulk Storage and Bottling of Ammonia Gas
Glove Manufacturing
Air Separation Plant
Bulk Storage of Hazardous Substance
Bulk Storage of Petroleum Products
LPG Cylinder Storage
Bulk Storage and Bottling of LPG
Petrochemical Plant
Water Treatment Plant
Chemical Processing Plant
47
13
4
2
19
1
30
44
35
9
28
57
30
236
0
5
1
38
12
16
21
324
54
2
166
29
MHI NMHI
Statistics of MHI and NMHI in Malaysia
10. Department of Occupational Safety and Health
Example of Major Hazards Accident
Substance Involve
Death Injury
Location Year
Phosgene 10 0 Mexico 1950
Cyclohexane 28 89 Flixborough, UK 1974
Dioxin/TCDD 30 320,000 Seveso Italy 1976
Hydrogen sulphide 8 29 Chicago 1978
Methyl isocyanate 2,000 200,000 Bhopal, India 1984
LPG (Explosion) 650 2,500 Mexico City 1985
Fireworks 11 8 Philippines 1986
Chlorine 0 76 USA 1986
Ammonium nitrate 6,000 evacuated France 1987
Methane (fire) 4 1 Italy 1987
Ammonium Nitrate 173 797 Tianjin, China 2015
Consequences
11. Department of Occupational Safety and Health
Example of Major Hazards Accident in Malaysia
Location
Death Injury
Event Year
Bright Sparklers,
Sungai Buloh
22 103 Fire works factory
explosion
1991
Matan Maju,
Beranang
2 3 Fire works factory
explosion
1992
Shell Tiram Kimia,
Port Klang
13 solvent depot fire
and explosion
1992
Shell MDS,
Bintulu
12 Air separation unit
explosion
1997
Consequences
12. Department of Occupational Safety and Health
Example of Major Hazards Accident
Flixborough 1 June 1974
Release of cyclohexane
plant destroyed
28 people killed
13. Department of Occupational Safety and Health
Example of Major Hazards Accident
Flixborough
Interconnection pipe
of Reactor No.5
replaced by a dog-leg
shaped pipe – failure
in management of
change
4
6
5
14. Department of Occupational Safety and Health
Example of Major Hazards Accident
Bhopal: 3 December 1984
Over 3500 people were killed
immediately and
170 000 sought medical
treatment
15. Department of Occupational Safety and Health
Example of Major Hazards Accident
BP Texas City Refinery : 23 March 2005
15 DEAD
100 INJURED
30 PUBLIC INJURED
8 IN CRITICAL CONDITION
USCSB :organizational and safety
deficiencies at all levels
16. Department of Occupational Safety and Health
Example of Major Hazards Accident
Hertfordshire Oil Terminal Fire, UK : 11 December 2005
15 DEAD
100 INJURED
30 PUBLIC INJURED
8 IN CRITICAL CONDITION
17. Department of Occupational Safety and Health
Example of Major Hazards Accident
Shell Middle Distillate Synthesis (Shell MDS) : 25 December 1997
• Air separation unit
exploded
• 12 people injured
18. Department of Occupational Safety and Health
Container Storage Station, Port of Tianjin , China
Series of Explosion, 12 August 2015
Some Facts:
Cause : Ammonium Nitrate
Total No’s of Death: 173
Injuries: 797
Economy Impact: Multi Million USD
19. Department of Occupational Safety and Health
ARE WE DOING ENOUGH TO KEEP MAJOR HAZARD SAFE FROM
ACCIDENT OR DISASTER IN FUTURE?
Enforcement
Role & Responsibility Duty
20. Department of Occupational Safety and Health
Obligation of DOSH
Enforced regulation on CIMAH 1996
Receive notification of industrial activity from manufacturer and develop
an installation inventory in the nation
Assess safety report and emergency plan
Conduct Compliance Audit
Conduct Accident Investigation
Interview and gazette the CIMAH Competent Person
23. Department of Occupational Safety and Health
Obligation of Manufacturer
Major Hazard Installation (MHI) Non Major Hazard (NMHI)
Notify to DOSH of an industrial activity Notify to DOSH of an industrial activity
Prepare and submit Safety Report and
On-Site Emergency Response Plan to
DOSH
Prepare and submit Demonstration
Operation Document and Emergency
Response Plan to DOSH if DG request
Keep up to date report and plan Keep up to date report and plan
Inform to the local authority -
Help local authority to prepare off-site
ERP
-
Inform to the public -
Inform DOSH of any major accident Inform DOSH of any major accident
24. Department of Occupational Safety and Health
Obligation of Employee (MHI & NMHI)
Co-operate with the manufacturer in complying the CIMAH
Act in such a manner as not to endanger or injury to himself or
other persons or damage to life and property
Notify the manufacturer as soon as he becomes aware of any
potential hazards
25. Department of Occupational Safety and Health
Obligation of Local Authority
Received notification from MHI manufacturer of the following –
Category of the plant (MHI)
Need for preparation of off-site ERP for that particular area
Prepare, keep up to date and implement an off-site emergency
response plan
26. Department of Occupational Safety and Health
Importance of Safety Reports
The core of the information for determining:
The suitability of the prevention and control measures;
The events which the manufacturer’s on-site emergency plan should be
designed to handle;
The events which off-site emergency plans should be capable of dealing with;
and
The identification of the key areas for dosh’s inspection effort.
27. Department of Occupational Safety and Health
Importance of Safety Reports
Objective of the document are being to:
Identify the nature and scale of use of the dangerous substances
Describes the type, relative likelihood and consequences of major accidents
Describe the arrangements for safe operation and control and mitigation of
major accidents.
The document is of practical use:
As a management tool for use by the company; and
As a tool for inspection for use by inspector.
28. Department of Occupational Safety and Health
Contents of Safety Reports
Information to be included in a report:
Information relating to every hazardous substance
Information relating to the installation
Information relating to the management system for controlling the
industrial activity
Information relating to the potential major accidents in the form of
risk assessment.
29. Department of Occupational Safety and Health
ERP
o Distribution list
o Equipment/maintenance Requirement
o Training requirement schedule
o Procedure update
o Equipment/alarm testing frequency
o Evaluation/Audit Reports
o Debriefing
o Requirements of incident reports
o Organizational Chart & Roles and Responsibility
o Notification List and Call Out List
o Plant Site Map and Security
o Emergency Equipment List
o Evacuation, Rescue and First Aid Operation Procedure
o Emergency Shutdown Procedure
o List & Location of Hazardous Materials including MSDS
o Relatives/Media Response Guide
o Audit Checklist
o Breakdown of First Line Response Centers, etc & function
o Specific Response to Fire, Explosion, Toxic, etc.
o Specific Response to On-Site Emergencies.
o Alarm Sequences
o Termination of Emergency
01
02
03
Plan, Administration
and Maintenance
Information
Emergency Action
Procedure and Format
30. Department of Occupational Safety and Health
Emergency Response Plan (ERP)
On-site ERP Off-site ERP
Prepared and keep up to date by
manufacturer MHI and NMHI
Prepared and keep up to date by
local authority under CIMAH
Plan to deal with emergency that can
cause damage
inside plant
and required minimum
response from outside emergency
services
Plan to deal with emergency that can
cause damage
inside and outside plant
and required extensively
response from outside emergency
services
31. Department of Occupational Safety and Health
Information to Public (ITP)
Information to be communicated:
Name of manufacturer and address of site of industrial activity
Identification by position held of person giving the information
Confirmation the major hazards site and safety report submitted
Brief explanation on site activity
Names of hazardous substances
Information relating to the nature of a major accident hazard
and potential effects
Information on how the population concerned will be warned
and kept informed of accident
32. Department of Occupational Safety and Health
Information to Public
Information to be communicated (continued):
Information on the action the population concerned should take
in the event of accident
Arrangement on site and liaison with off-site emergency
services to deal with emergency
A reference to the off-site emergency plan drawn up to cope
with any off-site effects
Further relevant information can be obtained.
33. Department of Occupational Safety and Health
Demonstration of Safe Operation for NMHI
NMHI manufacturers must :
Identify the possible major accident hazards
Take adequate steps to prevent any major accidents
Take adequate steps to minimize their consequences to
persons and the environment
Prepare and keep up to date an adequate on-site emergency
plan detailing how major accidents will be dealt with
Provide, at anytime, evidence including documents to show that
he has carried out the above items whenever requested by the
DG
34. Department of Occupational Safety and Health
Notification of Major Accidents
Notify by the quickest means available the nearest DOSH Office of
major accident
provide the following information relating to the accident as soon
as it becomes available
the circumstances of the accident;
the hazardous substances involved
the data available for assessing the effects of the accident
the emergency measures taken
35. Department of Occupational Safety and Health
TOXIC
Potential Failure
• Connecting pipe
damage
• Pipe erosion
• Malfunction of safety
valve
• Storage tank
physical defect
• Chlorine alarm
system failure
Chlorine
Consequence
• Toxic gas
dispersion
36. Department of Occupational Safety and Health
HIGHLY FLAMMABLE LIQUID
Potential Failure
• Pipe rupture
• Malfunction of safety
valve
• Floating roof failure
• Malfunction of level
alarm indicator
ULG RON
95
Consequence
• Pool fire
• Flash fire
• Explosion
37. Department of Occupational Safety and Health
FLAMMABLE GAS
Potential Failure
• Damage of valve stem
seals and flange gaskets
• Damage of transfer piping /
storage vessel due to
corrosion
• Failure of transfer pipe
flexible joint or cargo hose
• Tank overfilling, which
forces liquid out the
pressure relief safety
valves
LPG
Consequence
• Flash fire due to
delayed ignition of
a vapour cloud
• Fireball/BLEVE
(Boiling Liquid
Expanding Vapor
Explosion)
• UVCE (Unconfined
Vapor Cloud
Explosion)
38. Department of Occupational Safety and Health
HIGHLY REACTIVE SUBSTANCE
Potential Failure
• Damaged or poorly
maintained hoses, pipes
and valves
• Poor connections
• opening valves deliberately
or accidentally / not closing
valves properly after use
• Poor ventilation / confined
space
Oxygen
Consequence
• Fire
• Explosion
39. Department of Occupational Safety and Health
Potential Factors Lead Major Accident
Poor plant design, fabrication and installation, including the use of low-
standard components
regular plant maintenance
Management of change is not manageable
Changes of technology
Human and organizational errors
Natural occurrences and catastrophes
Component failure
Deviations from normal operation
Lack of regular inspection of the installation, with repair and replacement of
components where necessary
Aging Plant- majority of installation above 15 years
40. Department of Occupational Safety and Health
Important Information During Emergency
List of hazardous substance
Location of Hazardous Substances being kept inside premise- refer the
latest update plan lay –out
Latest Chemical Safety Data Sheet (CSDS)
Name of Person In-Charge (PIC) and contact number (Phone)
Contact no : Nearest agency(Bomba/ DOSH/Police/Hospital/local
Authority)
41. Department of Occupational Safety and Health
Off-Site Drill Tier III-Level 1 (Special Project-2017)
Reg. 22 - to conduct off-site emergency drill
Main objective : i- Comply Regulation, CIMAH 1996
ii- Readiness of the industry in managing emergency
iii- Readiness of related agencies in control of
emergency
Target Area: Kerteh Area
Name of MHI : TBA
Target Event : Q3 2017
Target Agencies : TBA
Selection of Scenario : TBA
42. Department of Occupational Safety and Health
Collaboration Inter Agencies
DOSH
BOMBA
LOCAL AUTHORITY
PORT AUTHORITY
Local Mutual Aid
Police
Others
REDUCE
IMPACT TO:
PEOPLE
PROPERTY
ENVIROMENT
43. Department of Occupational Safety and Health
Caution Statement
Regulation is not totally avoid major accident but provide a
minimum guidance for prevention and mitigation of major accident
Penalty - RM50,000 OR < 2 years imprisonment or both
Punitive Action- Charge to Court and Notices,
44. Department of Occupational Safety and Health
CONCLUSION
Information related to storage and handling of hazardous substance
being share to audience
Involvement and cooperation inter agencies can be establish for
prevention and mitigation of major accident hazard
Determine of prevention method in early stage
Right method and procedure are in place related industrial activity.
Good collaboration , support and cooperation with other agencies.