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Create a JHA for Hazardous Energy for the elevator trade

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Job Hazard Analysis for Elevator Maintenance and Repair: Hazardous Energy Control and Lockout/Tagout Procedures ===============================================================================================================

Assessment Date: \[DATE]

Assessor: \[ASSESSOR NAME]

Department/Area: \[DEPARTMENT/AREA]

Review Date: \[REVIEW DATE]

1\. Assessment Scope


This Job Hazard Analysis (JHA) covers all elevator maintenance and repair activities where hazardous energy control and lockout/tagout (LOTO) procedures are required. It includes the identification of potential hazards associated with various energy sources and the implementation of appropriate control measures to ensure worker safety. The scope encompasses all steps outlined in the elevator maintenance and repair procedures, from initial inspection to final testing. Excluded from this assessment are general housekeeping tasks not directly related to hazardous energy control.

2\. Risk Assessment Methodology


This risk assessment employs a 5x5 risk matrix to determine risk levels based on likelihood and severity. The hierarchy of controls is applied to mitigate identified hazards, prioritizing elimination and substitution where feasible, followed by engineering controls, administrative controls, and personal protective equipment (PPE). The assessment involves a step-by-step analysis of each task, identifying potential hazards, assessing initial risk, implementing control measures, and reassessing residual risk. The process also includes reviewing manufacturer documentation and considering potential misuse scenarios to ensure comprehensive coverage. [1] [1]

3\. Risk Matrix Reference


The following matrix is used to evaluate risk levels based on likelihood and severity:

Likelihood

| Rare | Unlikely | Possible | Likely | Almost Certain | | Severity | Catastrophic | Low | Low | Medium | Medium | High | | Major | Low | Medium | Medium | High | Extreme | | Moderate | Medium | Medium | High | Extreme | Extreme | | Minor | Medium | High | Extreme | Extreme | Extreme | | Negligible | High | Extreme | Extreme | Extreme | Extreme |

4\. Hazard Identification and Risk Evaluation


1\. Unexpected elevator movement due to electrical or mechanical failure during maintenance.

Potential Consequences: Severe injury or death due to crushing or impact. [2]

Affected Persons: Elevator maintenance personnel, other workers in the vicinity

Initial Risk Assessment
LikelihoodSeverityRisk Rating
PossibleMajorHigh
Control Measures
  • Eliminate the hazard by ensuring the elevator is completely de-energized before starting any maintenance work.
  • Use properly rated and inspected LOTO devices.
  • Verify zero energy state before commencing work.
  • Implement a buddy system to ensure no one is working alone.
  • Use appropriate PPE, including safety glasses, gloves, and safety shoes.
Residual Risk Assessment
LikelihoodSeverityRisk Rating
RareModerateLow

2\. Electrical shock or electrocution from contact with live electrical components.

Potential Consequences: Electrical burns, cardiac arrest, or death. [4]

Affected Persons: Elevator maintenance personnel

Initial Risk Assessment
LikelihoodSeverityRisk Rating
UnlikelyMajorMedium
Control Measures
  • Eliminate exposure by using insulated tools and equipment.
  • Implement LOTO procedures to de-energize electrical circuits.
  • Regularly inspect and maintain electrical equipment.
  • Provide training on electrical safety and LOTO procedures.
  • Use appropriate PPE, including insulated gloves and safety glasses.
Residual Risk Assessment
LikelihoodSeverityRisk Rating
RareModerateLow

3\. Musculoskeletal injuries (MSIs) from lifting heavy elevator components or working in awkward positions.

Potential Consequences: Sprains, strains, or chronic back pain. [6]

Affected Persons: Elevator maintenance personnel

Initial Risk Assessment
LikelihoodSeverityRisk Rating
LikelyModerateHigh
Control Measures
  • Eliminate the hazard by using proper lifting techniques and equipment.
  • Provide mechanical aids such as hoists or dollies for heavy components.
  • Ensure adequate lighting in the work area.
  • Implement a buddy system for lifting heavy items.
  • Use appropriate PPE, including back support and safety shoes.
Residual Risk Assessment
LikelihoodSeverityRisk Rating
UnlikelyMinorLow

4\. Exposure to hazardous substances such as cleaning solvents, lubricants, or hydraulic fluids.

Potential Consequences: Skin irritation, respiratory problems, or chemical burns. [6]

Affected Persons: Elevator maintenance personnel, other workers in the vicinity

Initial Risk Assessment
LikelihoodSeverityRisk Rating
PossibleModerateMedium
Control Measures
  • Eliminate the hazard by ensuring proper ventilation and using respiratory protection.
  • Use appropriate signage to warn of chemical hazards.
  • Provide training on the safe handling and storage of chemicals.
  • Ensure proper disposal of chemical waste.
  • Use appropriate PPE, including respirators and gloves.
Residual Risk Assessment
LikelihoodSeverityRisk Rating
RareMinorLow

5\. Falls from height while working in the elevator shaft or on top of the elevator car.

Potential Consequences: Serious injury or death due to falls.

Affected Persons: Elevator maintenance personnel, passengers (if elevator is not properly secured)

Initial Risk Assessment
LikelihoodSeverityRisk Rating
UnlikelyMajorMedium
Control Measures
  • Eliminate the hazard by using fall protection equipment such as harnesses and lanyards.
  • Ensure proper guarding of open elevator shafts.
  • Provide training on fall protection procedures.
  • Regularly inspect fall protection equipment.
  • Use appropriate PPE, including safety helmets and safety shoes.
Residual Risk Assessment
LikelihoodSeverityRisk Rating
RareModerateLow

6\. Failure to properly lockout/tagout elevator systems before maintenance or repair.

Potential Consequences: Unexpected start-up or release of stored energy, leading to severe injury or fatality. [4] [4]

Affected Persons: Elevator maintenance personnel

Initial Risk Assessment
LikelihoodSeverityRisk Rating
PossibleMajorHigh
Control Measures
  • Implement a comprehensive LOTO procedure that includes identifying all energy sources, isolating the elevator from those sources, locking and tagging the energy-isolating devices, and verifying that the elevator is de-energized before work begins.
  • Provide specific training to all maintenance personnel on the LOTO procedures for the specific types of elevators they service.
  • Conduct regular audits of LOTO procedures to ensure they are being followed correctly and are effective.
  • Use standardized LOTO tags and locks to clearly identify equipment that is under maintenance.
  • Ensure that only authorized personnel are permitted to apply and remove LOTO devices.
Residual Risk Assessment
LikelihoodSeverityRisk Rating
RareModerateLow

7\. Injuries from improper use or malfunction of tools and equipment.

Potential Consequences: Cuts, lacerations, fractures, or eye injuries. [6]

Affected Persons: Elevator maintenance personnel

Initial Risk Assessment
LikelihoodSeverityRisk Rating
PossibleModerateMedium
Control Measures
  • Ensure all tools and equipment are regularly inspected and maintained in good working order.
  • Use the right tool for the job to prevent damage or malfunction.
  • Provide training on the proper use of all tools and equipment.
  • Implement a tool control program to track and manage tools.
  • Require the use of safety glasses and gloves when using tools.
Residual Risk Assessment
LikelihoodSeverityRisk Rating
UnlikelyMinorLow

8\. Slips, trips, and falls due to poor housekeeping or inadequate lighting.

Potential Consequences: Sprains, strains, bruises, or fractures. [6]

Affected Persons: Elevator maintenance personnel

Initial Risk Assessment
LikelihoodSeverityRisk Rating
LikelyMinorMedium
Control Measures
  • Ensure adequate lighting is provided in all work areas.
  • Use portable lighting as needed to supplement fixed lighting.
  • Keep work areas clean and free of clutter.
  • Provide training on housekeeping procedures.
  • Regularly inspect work areas for slip, trip, and fall hazards.
Residual Risk Assessment
LikelihoodSeverityRisk Rating
UnlikelyNegligibleLow

9\. Exposure to poor air quality or confined space hazards in elevator machine rooms or shafts.

Potential Consequences: Respiratory problems, asphyxiation, or exposure to hazardous substances. [6]

Affected Persons: Elevator maintenance personnel

Initial Risk Assessment
LikelihoodSeverityRisk Rating
UnlikelyModerateMedium
Control Measures
  • Ensure proper ventilation in elevator machine rooms and shafts.
  • Use respiratory protection when working in poorly ventilated areas.
  • Monitor air quality for hazardous substances.
  • Provide training on the hazards of poor ventilation.
  • Implement a confined space entry program if required.
Residual Risk Assessment
LikelihoodSeverityRisk Rating
RareMinorLow

5\. General Control Measures


  • Implement a comprehensive Lockout/Tagout (LOTO) program that complies with regulatory standards. This program must include written procedures, employee training, and regular audits to ensure effectiveness.

Ensure all energy sources are identified, isolated, locked, and tagged before maintenance begins. Regularly review and update the LOTO procedures. [2]

  • Provide all employees with appropriate Personal Protective Equipment (PPE), including safety glasses, gloves, safety shoes, and hearing protection, as required by the task. Ensure PPE is properly fitted, maintained, and used correctly.

Conduct regular inspections of PPE to ensure it is in good condition. Replace damaged or worn PPE immediately.

  • Conduct regular safety meetings and training sessions to reinforce safe work practices and hazard awareness. These sessions should cover topics such as LOTO procedures, electrical safety, fall protection, and chemical handling.

Document all training activities and maintain records of employee attendance and comprehension. [3]

  • Ensure all work areas are well-lit and free from slip, trip, and fall hazards. Implement a housekeeping program to maintain a clean and organized work environment.

Conduct regular inspections to identify and correct any housekeeping issues.

  • Establish and enforce a strict policy regarding the use of tools and equipment. Ensure all tools are properly maintained, inspected before use, and used only for their intended purpose.

Provide training on the proper use of all tools and equipment. Remove any damaged or defective tools from service.

6\. Emergency Preparedness


  • In the event of an electrical shock, immediately de-energize the circuit if safe to do so. Administer first aid and call emergency services.
  • For chemical exposure, flush the affected area with water for at least 15 minutes and seek medical attention.
  • In case of a fall, do not move the injured worker unless there is an immediate danger. Call emergency services and provide first aid.

7\. Training Requirements


  • Lockout/Tagout Training: Comprehensive training on the company's Lockout/Tagout (LOTO) program, including the identification of energy sources, isolation procedures, and verification methods. [3]
  • Electrical Safety Training: Training on the recognition and avoidance of electrical hazards, including safe work practices, use of insulated tools, and proper grounding techniques.
  • Ergonomics and Safe Lifting Training: Training on proper lifting techniques, ergonomic principles, and the use of mechanical aids to prevent musculoskeletal injuries.
  • Hazardous Materials Training: Training on the hazards of chemicals used in elevator maintenance, including proper handling, storage, and disposal procedures.
  • Fall Protection Training: Training on the proper use of fall protection equipment, including harnesses, lanyards, and anchor points.

8\. Monitoring and Review


Review Frequency: Annually, and after any incident or change in procedure

Monitoring TypeFrequencyResponsible PartyDescription
Regular InspectionMonthlySafety ManagerRegular inspections of LOTO procedures to ensure compliance with established protocols.
AuditAnnuallyHealth and Safety CommitteeAudits of the hazardous energy control program to identify any gaps or areas for improvement. [3]
Performance IndicatorQuarterlySafety ManagerMonitoring of incident reports to identify trends and areas where additional controls may be needed. [5]
ReviewAnnuallySafety Manager and Maintenance SupervisorPeriodic review of the JHA to ensure it remains current and reflects any changes in equipment, procedures, or regulations.

9\. Special Circumstances


  • Adverse weather conditions such as rain or snow can increase the risk of slips, trips, and falls. Ensure work areas are properly cleared and use appropriate footwear. [6]
  • Night work can reduce visibility and increase the risk of accidents. Provide adequate lighting and use reflective clothing.
  • Lone work can increase the time it takes to respond to an emergency. Implement a buddy system or use a check-in procedure to ensure worker safety.

Approval and Sign-off


This risk assessment has been reviewed and approved by:

Assessor: _________________________ Date: __________

Manager/Supervisor: _________________________ Date: __________

Safety Representative: _________________________ Date: __________

This risk assessment must be reviewed annually, and after any incident or change in procedure or when significant changes occur.

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6 source record(s)

Sources used for this answer

[1] Hazard and Risk - Hazard Identification

Page 3

Open source document

Source excerpt

# Hazard and Risk - Hazard Identification (cont.) ## How are hazards identified? (cont.) - Job descriptions and demands analysis - Job safety analysis - Incident investigations - Documents and records - Hazard reporting by employees - Hazard mapping To be sure that all hazards are found: - Look at all aspects of the work and include non-routine activities such as maintenance, repair, or cleaning. - Look at the physical work environment, equipment, materials, products, etc. that are used. - Include the various steps that make up a task or activity. - Look at injury and incident records. - Talk to the workers: they know their job and its hazards best. - Include all shifts and people who work off-site, either at home, on other job sites, drivers, teleworkers, or with clients. - Look at the way the work is organized or done by different individuals (including the experience of people doing the work, systems being used, if alternate methods are being used, etc.). - Look at foreseeable unusual conditions (for example, possible impact on hazard control procedures that may be unavailable in an emergency situation, power outage, etc.). - Determine whether a product, machine, or equipment can be intentionally or unintentionally changed (such as a safety guard that could be removed). - Review all of the phases of the lifecycle of processes, products, and services (such as design, transportation, construction, dismantling, and disposal). - Examine risks to visitors or the public. - Consider the groups of people that may have a different level of risk, such as young or inexperienced workers, persons with disabilities, or new or expectant mothers. - Consider the psychosocial aspects of the job and the hazards that could be created. ## What types of hazards are there? A common way to classify hazards is by category: Hazard and Risk - Hazard Identification CCOHS

[2] Job Safety Analysis

Page 5

Open source document

Source excerpt

# How do I "identify potential hazards"? Once the basic steps have been recorded, actual and potential hazards must be identified at each step. Based on observations of the job, knowledge of incident and injury causes, and personal experience, list the things that could be unsafe at each step. A second observation of the job being performed may be needed. Since the basic steps have already been recorded, more attention can now be focused on each hazard. At this stage, no attempt is made to solve any problems or correct any hazards which may have been detected. To help identify potential hazards, the job analyst may use questions such as these (this is not a complete list): - Can any body part get caught in or between objects? - Do tools, machines, or equipment present any hazards? - Can the worker make harmful contact with moving objects? - Can the worker slip, trip, or fall? - Can the worker suffer strain from lifting, pushing, or pulling? - Is the worker exposed to extreme heat or cold? - Is excessive noise or vibration a problem? - Is there a danger from falling objects? - Is lighting a problem? - Can weather conditions affect safety? - Is harmful radiation a possibility? - Can contact be made with hot, toxic, or caustic products? - Are there dusts, fumes, mists, or vapours in the air? Potential hazards are listed in the middle column of the worksheet, numbered to match the corresponding job step. For example: Job Safety Analysis CCOHS

[3] Hazardous Energy Control Programs

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Open source document

Source excerpt

# Hazardous Energy Control Programs (cont.) ## What are the types of energy? (cont.) For example, when you close a valve on a pneumatic (air) or hydraulic (liquid) powered system, you have isolated the system from its primary energy source. However, there is still residual energy stored in any air or liquid that remains in the system. In this example, removing the residual energy would include bleeding out the liquid, or venting out the air. Until this residual energy is removed, the system is not de-energized, and an injury may occur due to the unexpected and unintended release of hazardous energy if someone were to begin work. In addition, the residual or stored energy may not be the same as the primary energy source and there may be more than one type of energy within a system that must be controlled. For example, an overhead roll-up door may have mechanical energy (roll-up mechanism) and gravitational potential energy. Should the roll-up mechanism fail, the energy would be released from the mechanism (such as a spring) and the roll-up door may also fall to the ground due to gravity. To control this potential energy, workplaces may use a manual blocking device for all roll-up or garage-style doors. Not properly assessing and dissipating stored energy can result in injuries or incidents. Control of hazardous energy includes isolating the system from its primary power source and residual energy. ## Are lockout and hazardous energy control the same thing? The terms lockout and hazardous energy control are sometimes used interchangeably, but they are NOT the same thing. Hazardous energy control is a broad term describing the use of procedures, techniques, designs and methods to protect personnel from injury due to the inadvertent release of hazardous energy. Lockout is the placement of a lock and tag on an energy-isolating device in accordance with an established procedure. It indicates that the energy-isolating device is not to be operated until removal of the…

[4] Hazardous Energy Control Programs

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Open source document

Source excerpt

# Hazardous Energy Control Programs (cont.) ## 2. Perform a Hazard and Risk Assessment (cont.) A recommended process for identifying hazards and their associated risk is outlined in both the CSA Z460-20 "Control of Hazardous Energy - Lockout and Other Methods" and the ISO [redacted postal code]:2010 (R2015) "Safety of Machinery - General Principles for Design - Risk Assessment and Risk Reduction" standards. The hazard and risk assessment will outline all situations where a worker could be exposed to hazards. This assessment includes answering the "what if's" questions. For example, what if a barrier or guard was removed or by-passed? Or, what if a hydraulic hose releases pressurized fluid when it is removed during maintenance? By considering scenarios of what could happen, controls can be implemented for all possible situations. ## 3. Implement Controls and Procedures The controls required will follow what hazards and risks were identified during the risk assessment. The risk assessment will also assist in prioritizing controls. Controls must be implemented using the hierarchy of controls. When the hazard cannot be eliminated, safeguards or other engineering controls can be installed. Administrative controls include altering the way the work is completed or introducing safe work procedures. ## 4. Provide Training Employers must communicate the hazardous energy control program with workers and provide education and training on their roles and responsibilities within the program. The training should cover all types of hazardous energy they may encounter throughout their work and how it can be controlled. All training should be documented and recorded. ## 5. Periodic Inspections and Audits Follow-up is important to determine if the program is effective. Employers, supervisors, and health and safety committee members should include hazardous energy control on their inspection checklists. Formal audits may be helpful to ensure there are no gaps in the program …

[5] Hazardous Energy Control Programs

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Open source document

Source excerpt

# Hazardous Energy Control Programs (cont.) ## What is the purpose of a hazardous energy control program? (cont.) - Unintended motion. - Contact with a hazard when guards are removed or safety devices have been by- passed or removed. ## What methods, other than lockout, exist to control hazardous energy? The method of hazardous energy control will depend on whether the task can be performed when the equipment is de-energized or not. If a full zero-energy state is possible, then a lockout program should be developed. Lockout is generally viewed as the most reliable way to protect an individual from hazardous energy because the system is brought to a zero-energy state. When a system is in a zero-energy state, the hazard has been eliminated; thus, no hazardous energy exists. In some cases, using lockout is not practical and other controls must be implemented to effectively reduce the risk of the hazard. Other methods include restraint systems, such as using blocks, chocks, pins, bars, chains, or cribbing. In some cases, isolation may be used such an inflatable bladder, or blanks and blinds to isolate workers performing tasks in or on a pipe. Always conduct a risk assessment of each task to identify all hazards and methods to be used as controls. Once the risk assessment for other control methods is completed, the other control methods can be selected and implemented. However, if an adequate level of risk cannot be achieved, then lockout will be the main method of control. Creating a zero-energy state and following a lockout program is the preferred method. ## What are the elements involved in a Hazardous Energy Control Program? Hazardous energy control programs involve the following elements: 1. Identify sources of hazardous energy in the workplace 2. Perform a hazard and risk assessment for the sources of hazardous energy 3. Implement energy controls and procedures 4. Provide training 5. Inspect and audit program and controls ## 1. Identify Sources of H…

[6] Hazardous Energy Control Programs

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Source excerpt

# Hazardous Energy Control Programs (cont.) ## 1. Identify Sources of Hazardous Energy (cont.) Next, gather documentation from the manufacturer or designer of each system about: - Where energy isolating devices are located and procedures for their use. - Step-by-step procedures for servicing or maintaining the system. - How to safely address malfunctions, jams, misfeeds, or other planned and unplanned interruptions in operations. - How to install, move, and remove any or all parts of the system safely. This information will allow you to understand how the system was intended to be used, and will provide you with recommendations on how the tasks can be performed safely. ## 2. Perform a Hazard and Risk Assessment A hazard analysis is performed by examining all the intended uses of the system from the perspective of both the manufacturer and the user. List all tasks and steps required to accomplish the task. This analysis should also include any hazards related to any possible misuse of the system. When performing the task identification, at a minimum, consider the following categories: - Machine/process set-up. - Teaching and programming of machinery. - Testing and start-up. - All modes of operation. - Product feeding into machine/process. - Product takeoff from machine/process. - Process/tool changeover. - Normal stoppages and restart. - Unscheduled stoppages (control failure or jam) and restart. - Emergency stoppages and restart. - Unexpected start-up. - Fault-finding and troubleshooting. - Cleaning and housekeeping. - Planned maintenance and repair. - Unplanned maintenance and repair. Based upon the information gathered, evaluate the likelihood and exposure of each hazard. The risk assessment should outline the possible hazards, and the associated risk of each hazard. Hazardous Energy Control Programs CCOHS

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