Industrial safety, social responsibility, loss of bread earner, loss to the family, orphans in society, societal burden, loss of productivity and production. Loss to the company, financiall burden
1. Electrical safety is the 4th largest contributor to fatalities in the construction industry, with 5% of deaths due to electric shock or discharge.
2. Conductors readily allow the flow of electricity while insulators have high resistance and prevent electricity from flowing. Water and human skin are normally insulators but become conductors when wet.
3. Electric shock occurs when a person becomes part of an electrical circuit, with current entering and leaving the body. The severity of shock depends on current amount, path through the body, and time in the circuit. Effects range from tingling to cardiac arrest.
Electrical safety is paramount when working with electricity. Proper lockout/tagout procedures must be followed to de-energize equipment before inspection or repair. Electrical shock can occur when a person provides a path for current to flow through their body, and even small currents above 8mA can be dangerous. It is not the voltage but the current that determines the severity of shock. Following safe work practices like using GFCIs, proper grounding and wiring, insulating tools, and wearing PPE can help prevent electrical injuries and fatalities. Planning, inspection, and training are also critical aspects of electrical safety.
This document discusses major construction safety hazards and how to avoid them. It identifies the top four hazards as falls, electrocution, being struck by falling objects, and being trapped during excavation. It provides guidance on fall protection, electrical safety, preventing falling objects, and safe excavation practices. It emphasizes using personal protective equipment, having fall protection systems, lockout/tagout procedures, competent oversight of excavations, and following all relevant OSHA regulations to stay safe during construction work.
This document provides an overview of electrical safety topics including:
- The four main types of electrical injuries and their hazards
- Requirements for personal protective equipment, safe work practices, and lockout/tagout procedures when working with electrical equipment
- Hazards of arc flash and the importance of de-energizing circuits before conducting work
- Proper inspection and ratings for test instruments, tools, and other equipment used for electrical work
The issues of electrical hazards at site and steps to prevent.tfkc1212
Electrical hazards were discussed along with steps to prevent them. Key points included:
- Electrical hazards can cause shock, electrocution or burns and result from unsafe equipment, environments or work practices.
- Proper insulation, grounding, guarding, use of personal protective equipment and following safety practices can help prevent electrical hazards. Insulation protects against shocks by preventing contact with energized parts.
How to work safely while working with electricity or electrical equipment. what are the safety rules to be followed? what is the safe system of work while working on electrical equipment. what kind of safety components to be used in place?
Workers using hand and power tools may be exposed to flying or falling objects, dust, fumes, and electrical or explosive hazards. Proper safety precautions include inspecting tools for damage, using the right tool for each job, guarding moving parts, wearing personal protective equipment, and receiving training on hazardous tools. Power tools like saws, drills, and sanders require additional precautions such as disconnecting tools when not in use, avoiding accidental starting, and securing workpieces.
1. Electrical safety is the 4th largest contributor to fatalities in the construction industry, with 5% of deaths due to electric shock or discharge.
2. Conductors readily allow the flow of electricity while insulators have high resistance and prevent electricity from flowing. Water and human skin are normally insulators but become conductors when wet.
3. Electric shock occurs when a person becomes part of an electrical circuit, with current entering and leaving the body. The severity of shock depends on current amount, path through the body, and time in the circuit. Effects range from tingling to cardiac arrest.
Electrical safety is paramount when working with electricity. Proper lockout/tagout procedures must be followed to de-energize equipment before inspection or repair. Electrical shock can occur when a person provides a path for current to flow through their body, and even small currents above 8mA can be dangerous. It is not the voltage but the current that determines the severity of shock. Following safe work practices like using GFCIs, proper grounding and wiring, insulating tools, and wearing PPE can help prevent electrical injuries and fatalities. Planning, inspection, and training are also critical aspects of electrical safety.
This document discusses major construction safety hazards and how to avoid them. It identifies the top four hazards as falls, electrocution, being struck by falling objects, and being trapped during excavation. It provides guidance on fall protection, electrical safety, preventing falling objects, and safe excavation practices. It emphasizes using personal protective equipment, having fall protection systems, lockout/tagout procedures, competent oversight of excavations, and following all relevant OSHA regulations to stay safe during construction work.
This document provides an overview of electrical safety topics including:
- The four main types of electrical injuries and their hazards
- Requirements for personal protective equipment, safe work practices, and lockout/tagout procedures when working with electrical equipment
- Hazards of arc flash and the importance of de-energizing circuits before conducting work
- Proper inspection and ratings for test instruments, tools, and other equipment used for electrical work
The issues of electrical hazards at site and steps to prevent.tfkc1212
Electrical hazards were discussed along with steps to prevent them. Key points included:
- Electrical hazards can cause shock, electrocution or burns and result from unsafe equipment, environments or work practices.
- Proper insulation, grounding, guarding, use of personal protective equipment and following safety practices can help prevent electrical hazards. Insulation protects against shocks by preventing contact with energized parts.
How to work safely while working with electricity or electrical equipment. what are the safety rules to be followed? what is the safe system of work while working on electrical equipment. what kind of safety components to be used in place?
Workers using hand and power tools may be exposed to flying or falling objects, dust, fumes, and electrical or explosive hazards. Proper safety precautions include inspecting tools for damage, using the right tool for each job, guarding moving parts, wearing personal protective equipment, and receiving training on hazardous tools. Power tools like saws, drills, and sanders require additional precautions such as disconnecting tools when not in use, avoiding accidental starting, and securing workpieces.
This document discusses various hazards that can occur in operating rooms, including fires/explosions, static electricity, electrical hazards, and power failures. It notes that fires require a spark/heat source, flammable substance, and oxygen. Potential sparks can come from static electricity, faulty electrical equipment, or foreign matter in gas cylinders. Flammable substances include ethers and other solutions. The document provides tips to reduce static electricity risks, such as using conductive flooring and clothing. It also outlines risks of electric shock and electrical burns from faulty equipment. Proper maintenance and following safety procedures are important to prevent injuries from these hazards in operating rooms.
This document discusses electrical safety and hazards. It notes that electricity can cause serious injuries or death if safety precautions are not followed. The most common electrical injuries are electrical shock, electrocution, burns, and falls. Electrical hazards include exposed parts, overloaded circuits, defective insulation, improper grounding, damaged tools, overhead power lines, and wet conditions. The document provides tips for staying safe such as inspecting tools, avoiding overloads, staying away from live wires, unplugging safely, avoiding jewelry or metal near equipment, using safe work practices, receiving training, and following lockout/tagout procedures.
This document discusses various hazards that can be present in an operating room, including fires/explosions, static electricity, electrical hazards, radiation injury, air pollution, and power failure. It provides details on the causes and risks of each hazard, as well as precautions that can be taken to reduce risks, such as ensuring proper electrical maintenance and inspection, minimizing static electricity through flooring/clothing choices, and having adequate ventilation and fire safety equipment. The document emphasizes that operating rooms involve technologically complex environments with many potential hazards that require close monitoring and safety protocols.
This document provides a summary of workplace safety training on hazards including chemicals, physical hazards, ergonomics, electricity, and required protections. It outlines common chemical hazards like welding fumes and their health effects. It describes physical hazards like noise, vibration, heat and their controls. Proper use of personal protective equipment, engineering and administrative controls are emphasized. Electrical safety topics covered include arc flash, shock, proper use of GFCIs and following lockout/tagout procedures. Employer responsibilities for ensuring safety are also reviewed.
SAFETY ENGINEERING- Personal Protective Equipment Majane Padua
This document discusses various safety roles and personal protective equipment. It describes security personnel who help detect safety hazards and assist engineers. It outlines the types of checks security can perform and various hazards they may encounter. The document then discusses different types of personal protective equipment including head, eye, face, hand, foot, body, hearing and respiratory protection. For each type of protective equipment, it identifies common hazards, provides examples, and describes appropriate equipment to use.
This document provides an overview of electrical safety. It discusses the purpose of electrical safety training, basic concepts of electricity, hazards recognition, effects of electricity on the human body, and hazard protection methods. It outlines work practices for using electrical tools and equipment safely, as well as responsibilities of supervisors and employees. Specific safety topics covered include inspecting cords and equipment, keeping electrical panels clear, avoiding trip hazards, locking out power sources, using personal protective equipment, and emergency response procedures. The goal is to raise awareness of electrical hazards and instruct safe work practices to prevent electrical accidents.
Considering the serious adverse consequences of growing environmental degradation steps had been taken to aware the students. This could have help our successor to take care of our environment to achieve green world.
Authority, A. E. (2017, November 2). YouTube. Retrieved from https ://www.youtube.com/watch?v=WseklKhGGAM&feature=youtu.be
Edvard. (2020, August 10). Electrical Engineering Portal. Retrieved from https ://electrical-engineering-portal.com/protection-three-phase-motors-from-unbalance-phase-loss-rotation
Electrical, P. (2019, August 3). YouTube. Retrieved from https ://www.youtube.com/watch?v=toUXbbPy7IU&feature=youtu.be
Electricveda. (2020). Electricveda.com. Retrieved from http s://www.electricveda.com/building-services/method-of-clean-earthing-or-grounding-in-electrical-system
Engineering, L. (2017, January 31). YouTube. Retrieved from http s://www.youtube.com/watch?v=km8MSWm39Z0&feature=youtu.be
Generator, I. (2015, October 12). YouTube. Retrieved from http s://www.youtube.com/watch?v=kyGWAVqnBFY&feature=youtu.be
Goyal, S. (2013, May 30). YouTube. Retrieved from http s://www.youtube.com/watch?v=2Pb3y69LUYw&feature=youtu.be
Hall, D. T. (2019). Practical Marine Electrical Knowledge. SSS Marine Society.
Insights, M. (2020). Ship's Electro-Technology part 1. Marine Insights.
Keljik, J. (2008). Electricity 2; Devices, Circuits, and Materials 8th Edition. New York: Delmar Cengage Learning.
Keljik, J. (2008). Electricity 4; AC/DC Motors, Control, and Maintenance 8th Edition. New York: Delmar Cengage Learning.
Keljik, J. (2013). Electricity 3: Power generation and Delivery 10th Edition. New York: Delmar Cengage Learning.
Kitcher, C. (2015, December 14). YouTube. Retrieved from http s://www.youtube.com/watch?v=FUjZwMMoltQ&feature=youtu.be
LabVolt. (2004). AC/DC MOTORS AND GENERATORS. Quebec: LabVolt Services.
LabVolt. (2004). Electric Power / Control; AC/DC Motor and Generator. Quebec: LabVolt Services.
LabVolt. (2004). ELECTRIC POWER / CONTROLS; COMPUTER-BASED INSTRUMENTS FOR EMS. Quebec: LabVolt Services.
Lessons, E. (2010, May 23). YouTube. Retrieved from https ://www.youtube.com/watch?v=ZL8zrkahuL0&feature=youtu.be
MyMisterSparky. (2010, January 21). YouTube. Retrieved from https ://www.youtube.com/watch?v=Vkd43t2y2to&feature=youtu.be
Wik, R. (2016, May 9). YouTube. Retrieved from http s://www.youtube.com/watch?v=jGdCqSxtTfo&feature=youtu.be
Woodworth, J. (2016, August 8). YouTube. Retrieved from http s://www.youtube.com/watch?v=yFCWzQxT3nE&feature=youtu.be
Yaskawa. (2017, August 21). YouTube. Retrieved from http s://www.youtube.com/watch?v=3-cs4eEiBWo&feature=youtu.be
Yaskawa. (2019, May 14). YouTube. Retrieved from http s://www.youtube.com/watch?v=qpKybaLURy0&feature=youtu.be
Yaskawa. (2019, May 20). YouTube. Retrieved from http s://www.youtube.com/watch?v=_ZztDN5XX5o&feature=youtu.be
The document discusses electrical hazards and safety procedures for computer system servicing and maintenance. Some key points:
1. Electrical hazards can cause shock, arc flash burns, or other injuries if workers make contact with energized equipment. Common electrical hazards include poorly installed wiring and equipment, overloaded outlets, and damaged cords.
2. Both static and dynamic electricity present risks. Static builds up from contact and friction, while dynamic electricity is the flow of electrons through a circuit.
3. Workers should be trained to install equipment safely, check for faults, isolate live parts, and use proper protective equipment like gloves and glasses. Unplugging equipment, avoiding water sources, and keeping work areas clear can reduce hazards.
This document provides training on electrical safety. It outlines responsibilities for management and employees to identify electrical hazards and prevent accidents. Hazards of electricity include shock, burns, arc blasts, explosions and fires. Electrical accidents are caused by unsafe equipment, environments and practices. Safe work practices like using protective equipment and following lockout/tagout procedures can prevent accidents. The key messages are that electricity can be deadly if misused but the risk is negligible if sensible precautions are taken.
The observation of safety guidelines are essential to the well being of any worker and the productivity of the said workers. this presentation will offer a clear guideline for those within the building industry.
An electrical hazard is a dangerous condition where a worker could make contact with energized equipment and be injured. Some common electrical hazards include overhead power lines, damaged tools and equipment, exposed electrical parts, improper grounding, inadequate wiring, damaged insulation, and wet conditions. Exposure to electrical hazards can cause electric shock, arc flash burns, and death. Workers must use protective equipment like gloves, shields and flame resistant clothing to protect themselves from electrical injuries.
Máy lọc không khí Daikin MC40UVM6
Tinh lọc không khí với Công nghệ Streamer và phin lọc tĩnh điện Hepa.
Thiết kế hình tháp, tinh tế và nhỏ gọn.
Diện tích: 31 m2
Công suất: 4 m3/ phút
Electrical Safety Campaign GPL and its guidelinesdeepakappu92
The document discusses electrical safety awareness and prevention at construction sites. It covers topics like the basics of electricity, electrical hazards, wiring practices, safety devices, and emergency response. It also outlines a campaign to provide electrical safety training to staff through activities to identify risks and preventive measures. Assessment of past safety audits revealed issues mostly with inspections, maintenance of equipment, cable routing and earthing systems. The document stresses the importance of lock-out tag-out procedures, grounding systems, and provides first aid guidelines for electrical shock.
The document discusses various welding safety hazards and precautions that welders should take, including protecting themselves from electric shock, arc rays, fumes and gases by wearing proper protective equipment such as gloves, helmet, and using adequate ventilation. It also outlines different welding positions, types of joints, and responsibilities of welders including following safety practices, demonstrating welding skills and knowledge, and maintaining a positive attitude.
The document discusses electrical safety. It defines electricity and its forms, electrical materials like conductors and insulators, and how electricity works by flowing through circuits. It describes the effects of electricity on the human body like electrical shocks and injuries. It emphasizes the importance of electrical safety and outlines safety practices like using personal protective equipment, lockout/tagout procedures, inspections, grounding, and being qualified for different electrical work. The document provides guidelines for working safely around electricity.
This document outlines an electrical safety training class on arc flash hazards and prevention. It discusses accident statistics showing the dangers of arc flashes. Key topics covered include electrical terminology, the differences between arc flash and arc blast, relevant industry standards like NFPA 70E, performing arc hazard analyses to determine appropriate personal protective equipment, establishing shock and arc flash boundaries, and ensuring safe work practices through lockout/tagout procedures.
This document discusses electrical safety for both industry and home. It outlines four major types of electrical injuries: electrocution, electrical shock, electrical burns, and falls. It emphasizes that only authorized employees should conduct electrical work after receiving special training. It warns of overloads causing fires and damage to tools/equipment. Exposed electrical parts, improper grounding, damaged insulation, and wet conditions are also identified as hazards. The document concludes with key safety practices for homes such as inspecting wiring, using faceplates, checking cords and gauges, avoiding daisy chaining, and not using electricity in wet areas.
Gravity intro of Mechanical, electrical and plumbing.pptxRamesh S P Ramesh
The document provides information about Gravity India Technologies Private Limited, including:
1) It outlines key events in the company's history from 1996 to 2022 when it started various new departments and projects.
2) It lists the branches the company has opened over the years in various cities across India.
3) It details several awards and achievements the company has received from its partners like Vertiv, Emerson, India Mart, and Micron Electrical for its sales, services, partnerships and safety practices.
4) It provides an overview of the various technical services and solutions the company offers including energy audits, design and project management, testing and commissioning services.
5) It outlines the different
This document discusses various hazards that can occur in operating rooms, including fires/explosions, static electricity, electrical hazards, and power failures. It notes that fires require a spark/heat source, flammable substance, and oxygen. Potential sparks can come from static electricity, faulty electrical equipment, or foreign matter in gas cylinders. Flammable substances include ethers and other solutions. The document provides tips to reduce static electricity risks, such as using conductive flooring and clothing. It also outlines risks of electric shock and electrical burns from faulty equipment. Proper maintenance and following safety procedures are important to prevent injuries from these hazards in operating rooms.
This document discusses electrical safety and hazards. It notes that electricity can cause serious injuries or death if safety precautions are not followed. The most common electrical injuries are electrical shock, electrocution, burns, and falls. Electrical hazards include exposed parts, overloaded circuits, defective insulation, improper grounding, damaged tools, overhead power lines, and wet conditions. The document provides tips for staying safe such as inspecting tools, avoiding overloads, staying away from live wires, unplugging safely, avoiding jewelry or metal near equipment, using safe work practices, receiving training, and following lockout/tagout procedures.
This document discusses various hazards that can be present in an operating room, including fires/explosions, static electricity, electrical hazards, radiation injury, air pollution, and power failure. It provides details on the causes and risks of each hazard, as well as precautions that can be taken to reduce risks, such as ensuring proper electrical maintenance and inspection, minimizing static electricity through flooring/clothing choices, and having adequate ventilation and fire safety equipment. The document emphasizes that operating rooms involve technologically complex environments with many potential hazards that require close monitoring and safety protocols.
This document provides a summary of workplace safety training on hazards including chemicals, physical hazards, ergonomics, electricity, and required protections. It outlines common chemical hazards like welding fumes and their health effects. It describes physical hazards like noise, vibration, heat and their controls. Proper use of personal protective equipment, engineering and administrative controls are emphasized. Electrical safety topics covered include arc flash, shock, proper use of GFCIs and following lockout/tagout procedures. Employer responsibilities for ensuring safety are also reviewed.
SAFETY ENGINEERING- Personal Protective Equipment Majane Padua
This document discusses various safety roles and personal protective equipment. It describes security personnel who help detect safety hazards and assist engineers. It outlines the types of checks security can perform and various hazards they may encounter. The document then discusses different types of personal protective equipment including head, eye, face, hand, foot, body, hearing and respiratory protection. For each type of protective equipment, it identifies common hazards, provides examples, and describes appropriate equipment to use.
This document provides an overview of electrical safety. It discusses the purpose of electrical safety training, basic concepts of electricity, hazards recognition, effects of electricity on the human body, and hazard protection methods. It outlines work practices for using electrical tools and equipment safely, as well as responsibilities of supervisors and employees. Specific safety topics covered include inspecting cords and equipment, keeping electrical panels clear, avoiding trip hazards, locking out power sources, using personal protective equipment, and emergency response procedures. The goal is to raise awareness of electrical hazards and instruct safe work practices to prevent electrical accidents.
Considering the serious adverse consequences of growing environmental degradation steps had been taken to aware the students. This could have help our successor to take care of our environment to achieve green world.
Authority, A. E. (2017, November 2). YouTube. Retrieved from https ://www.youtube.com/watch?v=WseklKhGGAM&feature=youtu.be
Edvard. (2020, August 10). Electrical Engineering Portal. Retrieved from https ://electrical-engineering-portal.com/protection-three-phase-motors-from-unbalance-phase-loss-rotation
Electrical, P. (2019, August 3). YouTube. Retrieved from https ://www.youtube.com/watch?v=toUXbbPy7IU&feature=youtu.be
Electricveda. (2020). Electricveda.com. Retrieved from http s://www.electricveda.com/building-services/method-of-clean-earthing-or-grounding-in-electrical-system
Engineering, L. (2017, January 31). YouTube. Retrieved from http s://www.youtube.com/watch?v=km8MSWm39Z0&feature=youtu.be
Generator, I. (2015, October 12). YouTube. Retrieved from http s://www.youtube.com/watch?v=kyGWAVqnBFY&feature=youtu.be
Goyal, S. (2013, May 30). YouTube. Retrieved from http s://www.youtube.com/watch?v=2Pb3y69LUYw&feature=youtu.be
Hall, D. T. (2019). Practical Marine Electrical Knowledge. SSS Marine Society.
Insights, M. (2020). Ship's Electro-Technology part 1. Marine Insights.
Keljik, J. (2008). Electricity 2; Devices, Circuits, and Materials 8th Edition. New York: Delmar Cengage Learning.
Keljik, J. (2008). Electricity 4; AC/DC Motors, Control, and Maintenance 8th Edition. New York: Delmar Cengage Learning.
Keljik, J. (2013). Electricity 3: Power generation and Delivery 10th Edition. New York: Delmar Cengage Learning.
Kitcher, C. (2015, December 14). YouTube. Retrieved from http s://www.youtube.com/watch?v=FUjZwMMoltQ&feature=youtu.be
LabVolt. (2004). AC/DC MOTORS AND GENERATORS. Quebec: LabVolt Services.
LabVolt. (2004). Electric Power / Control; AC/DC Motor and Generator. Quebec: LabVolt Services.
LabVolt. (2004). ELECTRIC POWER / CONTROLS; COMPUTER-BASED INSTRUMENTS FOR EMS. Quebec: LabVolt Services.
Lessons, E. (2010, May 23). YouTube. Retrieved from https ://www.youtube.com/watch?v=ZL8zrkahuL0&feature=youtu.be
MyMisterSparky. (2010, January 21). YouTube. Retrieved from https ://www.youtube.com/watch?v=Vkd43t2y2to&feature=youtu.be
Wik, R. (2016, May 9). YouTube. Retrieved from http s://www.youtube.com/watch?v=jGdCqSxtTfo&feature=youtu.be
Woodworth, J. (2016, August 8). YouTube. Retrieved from http s://www.youtube.com/watch?v=yFCWzQxT3nE&feature=youtu.be
Yaskawa. (2017, August 21). YouTube. Retrieved from http s://www.youtube.com/watch?v=3-cs4eEiBWo&feature=youtu.be
Yaskawa. (2019, May 14). YouTube. Retrieved from http s://www.youtube.com/watch?v=qpKybaLURy0&feature=youtu.be
Yaskawa. (2019, May 20). YouTube. Retrieved from http s://www.youtube.com/watch?v=_ZztDN5XX5o&feature=youtu.be
The document discusses electrical hazards and safety procedures for computer system servicing and maintenance. Some key points:
1. Electrical hazards can cause shock, arc flash burns, or other injuries if workers make contact with energized equipment. Common electrical hazards include poorly installed wiring and equipment, overloaded outlets, and damaged cords.
2. Both static and dynamic electricity present risks. Static builds up from contact and friction, while dynamic electricity is the flow of electrons through a circuit.
3. Workers should be trained to install equipment safely, check for faults, isolate live parts, and use proper protective equipment like gloves and glasses. Unplugging equipment, avoiding water sources, and keeping work areas clear can reduce hazards.
This document provides training on electrical safety. It outlines responsibilities for management and employees to identify electrical hazards and prevent accidents. Hazards of electricity include shock, burns, arc blasts, explosions and fires. Electrical accidents are caused by unsafe equipment, environments and practices. Safe work practices like using protective equipment and following lockout/tagout procedures can prevent accidents. The key messages are that electricity can be deadly if misused but the risk is negligible if sensible precautions are taken.
The observation of safety guidelines are essential to the well being of any worker and the productivity of the said workers. this presentation will offer a clear guideline for those within the building industry.
An electrical hazard is a dangerous condition where a worker could make contact with energized equipment and be injured. Some common electrical hazards include overhead power lines, damaged tools and equipment, exposed electrical parts, improper grounding, inadequate wiring, damaged insulation, and wet conditions. Exposure to electrical hazards can cause electric shock, arc flash burns, and death. Workers must use protective equipment like gloves, shields and flame resistant clothing to protect themselves from electrical injuries.
Máy lọc không khí Daikin MC40UVM6
Tinh lọc không khí với Công nghệ Streamer và phin lọc tĩnh điện Hepa.
Thiết kế hình tháp, tinh tế và nhỏ gọn.
Diện tích: 31 m2
Công suất: 4 m3/ phút
Electrical Safety Campaign GPL and its guidelinesdeepakappu92
The document discusses electrical safety awareness and prevention at construction sites. It covers topics like the basics of electricity, electrical hazards, wiring practices, safety devices, and emergency response. It also outlines a campaign to provide electrical safety training to staff through activities to identify risks and preventive measures. Assessment of past safety audits revealed issues mostly with inspections, maintenance of equipment, cable routing and earthing systems. The document stresses the importance of lock-out tag-out procedures, grounding systems, and provides first aid guidelines for electrical shock.
The document discusses various welding safety hazards and precautions that welders should take, including protecting themselves from electric shock, arc rays, fumes and gases by wearing proper protective equipment such as gloves, helmet, and using adequate ventilation. It also outlines different welding positions, types of joints, and responsibilities of welders including following safety practices, demonstrating welding skills and knowledge, and maintaining a positive attitude.
The document discusses electrical safety. It defines electricity and its forms, electrical materials like conductors and insulators, and how electricity works by flowing through circuits. It describes the effects of electricity on the human body like electrical shocks and injuries. It emphasizes the importance of electrical safety and outlines safety practices like using personal protective equipment, lockout/tagout procedures, inspections, grounding, and being qualified for different electrical work. The document provides guidelines for working safely around electricity.
This document outlines an electrical safety training class on arc flash hazards and prevention. It discusses accident statistics showing the dangers of arc flashes. Key topics covered include electrical terminology, the differences between arc flash and arc blast, relevant industry standards like NFPA 70E, performing arc hazard analyses to determine appropriate personal protective equipment, establishing shock and arc flash boundaries, and ensuring safe work practices through lockout/tagout procedures.
This document discusses electrical safety for both industry and home. It outlines four major types of electrical injuries: electrocution, electrical shock, electrical burns, and falls. It emphasizes that only authorized employees should conduct electrical work after receiving special training. It warns of overloads causing fires and damage to tools/equipment. Exposed electrical parts, improper grounding, damaged insulation, and wet conditions are also identified as hazards. The document concludes with key safety practices for homes such as inspecting wiring, using faceplates, checking cords and gauges, avoiding daisy chaining, and not using electricity in wet areas.
Gravity intro of Mechanical, electrical and plumbing.pptxRamesh S P Ramesh
The document provides information about Gravity India Technologies Private Limited, including:
1) It outlines key events in the company's history from 1996 to 2022 when it started various new departments and projects.
2) It lists the branches the company has opened over the years in various cities across India.
3) It details several awards and achievements the company has received from its partners like Vertiv, Emerson, India Mart, and Micron Electrical for its sales, services, partnerships and safety practices.
4) It provides an overview of the various technical services and solutions the company offers including energy audits, design and project management, testing and commissioning services.
5) It outlines the different
Course Creation guidelines_ For Academic Courses (1).pptxRamesh S P Ramesh
The document provides guidelines for creating an academic course with a hierarchical structure of units, concepts, and sub-concepts. It specifies naming conventions and file organization. Key elements include folders for the overall course, units, concepts, and sub-concepts, with tests, videos, and other files stored within following a standardized naming scheme based on the course and element codes. Detailed instructions are given for creating normal and higher-order thinking skills tests at each level, as well as full tests for the overall course.
The document discusses permutations and combinations. It defines permutations as different arrangements that can be made by selecting objects in a given set, where order matters. The fundamental principles of multiplication and addition for permutations are explained. Factorial notation is introduced to calculate the number of permutations when objects are distinct. Examples are provided to illustrate permutations calculations.
Course Creation guidelines_ For Academic Courses (1).pptxRamesh S P Ramesh
The document provides guidelines for creating an academic course with a hierarchical structure of units, concepts, and sub-concepts. It specifies naming conventions and file organization. Key elements include folders for the overall course, units, concepts, and sub-concepts, with tests, videos, and other files stored within following a standardized naming scheme based on the course and element codes. Detailed instructions are given for creating normal and higher-order thinking skills tests at each level, as well as full tests for the overall course.
Machining is a material removal process that uses sharp cutting tools to shape a workpiece. The three main machining processes are turning, drilling, and milling. Turning is done on a lathe and involves a single-point cutting tool removing material from a rotating workpiece to create cylindrical shapes. Drilling uses a rotating multi-point tool to create round holes. Milling employs a rotating cutting tool with multiple edges that is moved across the workpiece to cut planes and straight surfaces. Other important topics covered include cutting conditions, tooling, chip formation, forces, and temperatures in machining as well as different lathe and machine operations.
Course Creation guidelines_ For Academic Courses.pptxRamesh S P Ramesh
The document provides guidelines for creating an academic course with a structured folder system and naming conventions. Key points:
- The course content is organized into folders for the overall course, units, concepts, and sub-concepts.
- Files are named according to the element they relate to (e.g. unit, concept) along with indication of the file type (e.g. test, video).
- Compulsory items include a course framework, full tests for the course, unit tests, concept tests, and sub-concept tests and videos.
- Questions are tagged and coded according to element, type, difficulty, and standards to ensure organization and tracking.
3D printing technology for medical applications.pdfRamesh S P Ramesh
This document summarizes 3D printing technology methods, biomedical applications, future opportunities, and trends. It discusses how 3D printing works by adding layers of material to create 3D objects from digital designs. The document outlines various 3D printing methods and materials used. It describes applications of 3D printing in biomedical fields like surgery, medical devices, tissue engineering, and organ printing. The document concludes by discussing expected future developments and trends in using 3D printing for more biomedical applications.
Chapter wise All Notes of First year Basic Civil Engineering.pptxDenish Jangid
Chapter wise All Notes of First year Basic Civil Engineering
Syllabus
Chapter-1
Introduction to objective, scope and outcome the subject
Chapter 2
Introduction: Scope and Specialization of Civil Engineering, Role of civil Engineer in Society, Impact of infrastructural development on economy of country.
Chapter 3
Surveying: Object Principles & Types of Surveying; Site Plans, Plans & Maps; Scales & Unit of different Measurements.
Linear Measurements: Instruments used. Linear Measurement by Tape, Ranging out Survey Lines and overcoming Obstructions; Measurements on sloping ground; Tape corrections, conventional symbols. Angular Measurements: Instruments used; Introduction to Compass Surveying, Bearings and Longitude & Latitude of a Line, Introduction to total station.
Levelling: Instrument used Object of levelling, Methods of levelling in brief, and Contour maps.
Chapter 4
Buildings: Selection of site for Buildings, Layout of Building Plan, Types of buildings, Plinth area, carpet area, floor space index, Introduction to building byelaws, concept of sun light & ventilation. Components of Buildings & their functions, Basic concept of R.C.C., Introduction to types of foundation
Chapter 5
Transportation: Introduction to Transportation Engineering; Traffic and Road Safety: Types and Characteristics of Various Modes of Transportation; Various Road Traffic Signs, Causes of Accidents and Road Safety Measures.
Chapter 6
Environmental Engineering: Environmental Pollution, Environmental Acts and Regulations, Functional Concepts of Ecology, Basics of Species, Biodiversity, Ecosystem, Hydrological Cycle; Chemical Cycles: Carbon, Nitrogen & Phosphorus; Energy Flow in Ecosystems.
Water Pollution: Water Quality standards, Introduction to Treatment & Disposal of Waste Water. Reuse and Saving of Water, Rain Water Harvesting. Solid Waste Management: Classification of Solid Waste, Collection, Transportation and Disposal of Solid. Recycling of Solid Waste: Energy Recovery, Sanitary Landfill, On-Site Sanitation. Air & Noise Pollution: Primary and Secondary air pollutants, Harmful effects of Air Pollution, Control of Air Pollution. . Noise Pollution Harmful Effects of noise pollution, control of noise pollution, Global warming & Climate Change, Ozone depletion, Greenhouse effect
Text Books:
1. Palancharmy, Basic Civil Engineering, McGraw Hill publishers.
2. Satheesh Gopi, Basic Civil Engineering, Pearson Publishers.
3. Ketki Rangwala Dalal, Essentials of Civil Engineering, Charotar Publishing House.
4. BCP, Surveying volume 1
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Making of a Nation.
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Denis is a dynamic and results-driven Chief Information Officer (CIO) with a distinguished career spanning information systems analysis and technical project management. With a proven track record of spearheading the design and delivery of cutting-edge Information Management solutions, he has consistently elevated business operations, streamlined reporting functions, and maximized process efficiency.
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What sets Denis apart is his comprehensive understanding of Business and Systems Analysis technologies, honed through involvement in all phases of the Software Development Lifecycle (SDLC). From meticulous requirements gathering to precise analysis, innovative design, rigorous development, thorough testing, and successful implementation, he has consistently delivered exceptional results.
Throughout his career, he has taken on multifaceted roles, from leading technical project management teams to owning solutions that drive operational excellence. His conscientious and proactive approach is unwavering, whether he is working independently or collaboratively within a team. His ability to connect with colleagues on a personal level underscores his commitment to fostering a harmonious and productive workplace environment.
Date: May 29, 2024
Tags: Information Security, ISO/IEC 27001, ISO/IEC 42001, Artificial Intelligence, GDPR
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7. CONSEQUENCES OF ACCIDENTS
Medical expenses.
No peace of mind in family.
Frustration in life.
Future plans upset.
Loss to the family if death or
disablement occurs.
9. CAUSES OF ACCIDENTS:
1. UNSAFE ACTS: Not following:
Safety norms applicable to them.
Standing orders of the company.
Plant safety rules.
Safety instructions.
Safety tips.
Accident prevention instructions.
10. CAUSES OF ACCIDENTS:
Not using:
Safety guards.
Safety gadgets (PPEs)
Recommended speeds & feeds.
Not using right tool for right job/ use
of worn-out/ non-standard tools.
11. CAUSES OF ACCIDENTS:
Other misc. causes:
Horse play at the Shop floor.
Disturbing the concentration of others by
throwing items, talking.
Operating dangerous machines without
training, without knowing, without orders
etc.
Short-cuts methods.
12. CAUSES OF ACCIDENTS:
Not reporting in-time and.
defects noticed
Bad house keeping.
Improper cleaning of tool/
job/ m/c.
Not using proper and
suitable PPE.
13. CAUSES OF ACCIDENTS:
PERSONAL FACTORS:
Faulty attitudes like lack
of attention, irresponsibility,
recklessness.
Defective vision.
Lack of sleep.
Risk taking tendency.
Alcohol/ drug habits.
Worry and emotion.
14. CAUSES OF ACCIDENTS:
PERSONAL FACTORS:
Physical fitness.
UNSAFE CONDITIONS:
Faulty Mechanical
Conditions.
No provision of guards.
Improper ventilations.
Poor illumination.
No caution boards/
notice boards.
15. CAUSES OF ACCIDENTS:
UNSAFE CONDITIONS:
Improper maintenance &
periodical maintenance
inspection.
NATURAL CALAMITIES:
Lightening.
Floods.
Collapsing of building.
Earthquake.
21. 22
Electricity - The Dangers
• About 5 workers are
electrocuted every week
• Causes 12% of young worker
workplace deaths
• Takes very little electricity to
cause harm
• Significant risk of causing
fires
22. 23
Electricity – How it Works
• Electricity is the flow of energy
from one place to another
• Requires a source of power:
usually a generating station
• A flow of electrons (current)
travels through a conductor
• Travels in a closed circuit
23. 24
Electrical Terms
• Current -- electrical movement (measured in amps)
• Circuit -- complete path of the current. Includes electricity
source, a conductor, and the output device or load (such as a lamp,
tool, or heater)
• Resistance -- restriction to electrical flow
• Conductors – substances, like metals, with little resistance to
electricity that allow electricity to flow
• Grounding – a conductive connection to the earth which acts as a
protective measure
• Insulators -- substances with high resistance to electricity like
glass, porcelain, plastic, and dry wood that prevent electricity from
getting to unwanted areas
24. 25
Electrical Injuries
There are four main types of electrical injuries:
• Direct:
Electrocution or death due to electrical shock
Electrical shock
Burns
• Indirect - Falls
25. 26
Electrical Shock
An electrical shock is received when electrical
current passes through the body.
You will get an electrical shock if a part of your
body completes an electrical circuit by…
• Touching a live wire and an electrical ground, or
• Touching a live wire and another wire at a different
voltage.
26. 27
Shock Severity
• Severity of the shock depends on:
• Path of current through the body
• Amount of current flowing through the
body (amps)
• Duration of the shocking current through
the body,
• LOW VOLTAGE DOES NOT MEAN LOW
HAZARD
27. 28
Dangers of Electrical Shock
• Currents above 10 mA* can paralyze or
“freeze” muscles.
• Currents more than 75 mA can cause a
rapid, ineffective heartbeat -- death will
occur in a few minutes unless a
defibrillator is used
• 75 mA is not much current – a small
power drill uses 30 times as much
* mA = milliampere = 1/1,000 of an ampere
Defibrillator in use
28. 29
Burns
• Most common shock-related
injury
• Occurs when you touch
electrical wiring or equipment
that is improperly used or
maintained
• Typically occurs on hands
• Very serious injury that needs
immediate attention
29. 30
Falls
• Electric shock can also cause
indirect injuries
• Workers in elevated locations
who experience a shock may
fall, resulting in serious injury
or death
30. 31
Electrical Hazards and How to
Control Them
Electrical accidents are
caused by a combination of
three factors:
• Unsafe equipment and/or
installation,
• Workplaces made unsafe by
the environment, and
• Unsafe work practices.
31. 32
Hazard – Exposed Electrical Parts
Cover removed from wiring or breaker box
32. 33
Control – Isolate Electrical Parts
• Use guards or
barriers
• Replace covers
Guard live parts of electric
equipment operating at 50 volts or
more against accidental contact
33. 34
Control – Isolate Electrical Parts - Cabinets,
Boxes & Fittings
Conductors going into them must be protected, and
unused openings must be closed
34. 35
Grounding
Grounding creates a low-
resistance path from a tool to
the earth to disperse unwanted
current.
When a short or lightning
occurs, energy flows to the
ground, protecting you from
electrical shock, injury and
death.
35. 36
Safety-Related Work Practices
To protect workers from electrical shock:
• Use barriers and guards to prevent
passage through areas of exposed
energized equipment
• Pre-plan work, post hazard warnings and
use protective measures
• Keep working spaces and walkways clear
of cords
36. 37
Safety-Related Work Practices
• Use special insulated tools when
working on fuses with energized
terminals
• Don’t use worn or frayed cords
and cables
• Don’t fasten extension cords with
staples, hang from nails, or
suspend by wire.
37. 38
Preventing Electrical Hazards -
Planning
• Plan your work with others
• Plan to avoid falls
• Plan to lock-out and tag-out
equipment
• Remove jewelry
• Avoid wet conditions and
overhead power lines
38. 39
Avoid Wet Conditions
• If you touch a live wire or other electrical
component while standing in even a small
puddle of water you’ll get a shock.
• Damaged insulation, equipment, or tools
can expose you to live electrical parts.
• Improperly grounded metal switch plates &
ceiling lights are especially hazardous in
wet conditions.
• Wet clothing, high humidity, and
perspiration increase your chances of being
electrocuted.
39. 40
Preventing Electrical Hazards - PPE
• Proper foot protection
(not tennis shoes)
• Rubber insulating gloves,
hoods, sleeves, matting,
and blankets
• Hard hat (insulated -
nonconductive)
43. Common Types of PPE
Head
Eyes
Face
Hands
Feet
Body
Hearing
Respiratory
44. Personal Protective
Equipments
Leather-cum-canvas hand gloves.
Leather hand gloves.
Cotton gloves.
Rubber hand gloves.
Electric shock resistant gloves.
Protective barrier cream.
Leg guard and leather legging.
Leather safety boot.
Gum boot.
45. Personal Protective
Equipments
Fiber glass industrial type helmet.
Welding helmet and welding shield.
Panorama goggles with clear plastic visor.
Leather cup type goggles.
Ear Plug.
Dust respirator.
Canister type gas mask.
Leather apron.
Safety Belts.
48. What is 5 S?
• A program to reduce
operational steps and improve
the overall cleanliness of a
work area to make it safer and
more productive
• these 5 steps are:
49. Principles
1. Everything HAS a place and everything IN
its place
2. Nothing on the Floor except legs,
wheels, or pallets
3. When in doubt, throw it out
78. Session Objectives
•Recognize the benefits of obtaining
first-aid and CPR certification
•Identify proper procedures for a variety
of medical emergencies
•Assist in administering first aid when a
co-worker is injured
•Do no further harm
79. •After an accident, immediately move the
victim to a comfortable position.
•If a person is bleeding, use a tourniquet.
•Signs of a heart attack include shortness
of breath, anxiety, and perspiration.
•All burns can be treated with first aid
alone; no emergency medical attention
is necessary.
Prequiz:
True or False?
91. CPR
Match the problem with the correct first-aid procedure.
Bleeding
Choking
No breathing
Heart attack
Shock
Sweeten deal
Keep victim still
Direct pressure
Abdominal thrusts
Elevate feet
92. Do you understand first-aid
procedures for:
• No breathing?
• Bleeding?
• Shock?
• Heart attack?
• Choking?
• Electrical shock?
Review
•Do you understand first-aid
procedures for:
• No breathing?
• Bleeding?
• Shock?
• Heart attack?
• Choking?
• Electrical shock?
99. Fainting
• Check for breathing
• Administer CPR if necessary
• Call 108 if more than
a few minutes
• If conscious, lay the victim down
with feet elevated
101. Which is the worst
kind of burn?
For a particle in
the eye:
For inhalation of
vapors or gases:
For heatstroke:
Multiple choice
a. First degree
a. Flush with water
a. Induce vomiting
a. Call 108
b. Third degree
b. Rub eye
b. Move to fresh air
b. Don’t call 108
102. Do you understand first-aid
procedures for:
• Eye injuries?
• Burns?
• Exposure to hazardous
materials?
• Broken bones?
• Heat exhaustion and
heatstroke?
• Fainting?
• Epileptic seizures?
Review
•Do you understand first-aid
procedures for:
• Eye injuries?
• Burns?
• Exposure to hazardous
materials?
• Broken bones?
• Heat exhaustion and
heatstroke?
• Fainting?
• Epileptic seizures?
103. Key Points to Remember
•Medical emergencies can happen anytime.
•Act quickly, calmly, and correctly.
•Consider being certified in first aid
and CPR.
109. Objectives
• Understand the combustion process and
different fire classes
• Understand fire extinguisher types, operating
procedures
• Understand basic firefighting concepts:
Fire Safety & Fire Extinguisher Use
110. Fire is the rapid oxidation of a material in the exothermic chemical process of
combustion, releasing heat, light, and various reaction products.
Definition
111. The Combustion Process
Fire Safety & Fire Extinguisher Use
• Three components
• Need all three
components to start a
fire
• Fire extinguishers
remove one or more of
the components.
112. Fire Classes
• wood
• paper
• cloth
• etc.
A Trash Wood Paper
C Electrical Equipment
B Liquids Grease
COMBUSTIBLE
METALS
D
• gasoline
• oil
• grease
• other solvents
• computers
• fax machine
• other energized
electrical equip.
• magnesium
• sodium
• potassium
• titanium
• other
flammable
metals
113. Fire Extinguisher Anatomy
DISCHARGE HOSE
DISCHARGE NOZZLE
DISCHARGE ORIFICE
BODY
DATA PLATE
CARRYING
HANDLE
PRESSURE GAUGE
(not found on CO2
extinguishers)
DISCHARGE LEVER
DISCHARGE LOCKING PIN
AND SEAL
114. Fire Extinguisher Types
• Class “A” fires only
• 2.5 gal. water
(up to 1 minute discharge time)
• Has pressure gauge to allow visual
capacity check
• 30-40 ft. maximum effective range
• Can be started and stopped as
necessary
• Extinguishes by cooling burning
material below the ignition point.
PRESSURIZED WATER
A Trash Wood Paper
B Liquids Grease
C Electrical Equipment
A Trash Wood Paper
B Liquids Grease
C Electrical Equipment
115. Fire Extinguisher Types (cont.)
• Class “B” or “C” fires
• 2.5-100 lb. of CO2
(8-30 seconds discharge time)
• Has NO pressure gauge--capacity
verified by weight
• 3-8 ft. maximum effective range
• Extinguishes by smothering burning
materials
• Effectiveness decreases as
temperature of burning material
increases.
CARBON DIOXIDE (CO2)
A Trash Wood Paper
B Liquids Grease
C Electrical Equipment
A Trash Wood Paper
B Liquids Grease
C Electrical Equipment
116. Fire Extinguisher Types (cont.)
• Class “A”, “B”, or “C” fires
• 2.5-20 lb. dry chemical
(ammonium phosphate)
8-25 seconds discharge
time)
• Has pressure gauge to
allow visual capacity check
• 5-20 ft. maximum effective
range
• Extinguishes by smothering
burning materials.
MULTIPURPOSE DRY CHEMICAL
A Trash Wood Paper
B Liquids Grease
C Electrical Equipment
A Trash Wood Paper
B Liquids Grease
C Electrical Equipment
117. Fire Extinguisher Summary
EXTINGUISHER TYPE WORKS BY EFFECTIVE AGAINST
PRESSURIZED
WATER
CARBON DIOXIDE
MULTIPURPOSE DRY
CHEMICAL
COOLING
SMOTHERING
SMOTHERING
118. Growth – The growth stage is where the structures fire
load and oxygen are used as fuel for the fire. There are
affecting the growth stage including where the fire started,
are near it, ceiling height and the potential for “thermal
this shortest of the 4 stages when a deadly “flashover” can
trapping, injuring or killing firefighters.
Incipient – This first stage begins when heat, oxygen and a
fuel source combine and have a chemical reaction
resulting in fire. This is also known as “ignition” and is
usually represented by a very small fire which often (and
hopefully) goes out on its own, before the following stages
are reached. Recognizing a fire in this stage provides your
best chance at suppression or escape.
Fully Developed – When the growth stage has reached its
max and all combustible materials have been ignited, a
fire is considered fully developed. This is the hottest
phase of a fire and the most dangerous for anybody
trapped within
Decay – Usually the longest stage of a fire, the decay
stage is characterized a significant decrease in oxygen or
fuel, putting an end to the fire. Two common dangers
during this stage are first – the existence of non-flaming
combustibles, which can potentially start a new fire if not
fully extinguished. Second, there is the danger of a
backdraft when oxygen is reintroduced to a volatile,
confined space.
Flashover is a thermally-driven event during which every
combustible surface exposed to thermal radiation in a
compartment or enclosed space rapidly and
simultaneously ignites.
Stages of Fire
122. Fighting the Fire
Pull the pin
Aim low at
the base of flames
Squeeze the handle
Sweep side to side
P
A
S
S
123. Fire Extinguishers
Sl.No.
Type of Fire
Extinguisher
Location of the Fire Extinguisher Capcity (kg)
1 Clean Agent B.4.2 Station - L1 2
2 Powder B.4.2 Station - L1 2
3 Powder B.3.1 Station - L1 2
4 Clean Agent B.4.2 Station - L2 2
5 Clean Agent Battery Charging Area-L1-End 2
6 Clean Agent Battery Charging Area-L2-End 2
7 Clean Agent Battery Charging Area-L2-Start 2
8 Clean Agent Battery Charging Area-L1-Start 2
9 Clean Agent Incoming Material Area 2
10 Clean Agent Wearhouse - Rack-C 2
11 Clean Agent Pack Testing 2
12 Clean Agent Near Meeting Board 2
First Aid Kit
Sl.No. Location of the First Aid Kit
1 Near Rejection Area
2 Near Dispatch – QC
3 Near Wearhouse
4 At Security Gate
5 At Pantry
A clean agent is any type of fire extinguishing agent that is electrically non-conductive, volatile, or gaseous, and
that does not leave a residue upon evaporation. Clean agent fire suppression systems make use of an inert gas or
chemical that is stored in a container and discharged when a fire is detected.
Emergency Equipment in Log9-BLR-2
Dry powder fire extinguishers extinguish the fire primarily by interrupting the chemical reaction taking place and
cutting off the oxygen supply. They can be used on fires involving solid combustibles, flammable liquids and
electricity.
124. Gate
Road
Road
Office & Pantry in First Floor
Road
Battery Storage
Area Dispatch Area
Battery Pack
Testing Area
DG Area
Office Area
Wear House
Pack Storage
Area
Security Office
Assembly
Line-2
Assembly
Line-1
Pack Assembly Area
Toilet
Battery
Charging
Line-2
Battery
Charging
Line-1
Parking
Area
Garden
Garden
Emergency Layout
125. What is hazards?
A hazard is anything that could hurt you or make you sick.
What is risk ?
A situation involving exposure to danger
Expose (someone or something valued) to danger, harm, or
loss.
126.
127.
128. A hazard is anything that can
Cut you Trip you Burn you Crush you
Hurt Your Hearing Hurt Your Eyes Cause You Pain
140. Mechanical Safety Dos and Don’ts
1. Train all machine operators on proper machine operation and
safety procedures.
2. Inspect machinery before each use-ensuring that safeguarding
systems are in place and working properly.
3. Follow all machine operating and maintenance instructions.
1. Use appropriate personal protective equipment-such as safety
glasses or goggles, respiratory protection and hearing protection.
1. Keep hands away from all moving parts-at all times.
2. Exercise good housekeeping. Clean all tools after each use and
store them properly.
1. keep work area clean and well-lit.
2. Ensure hazardous energy is isolated and controlled if access to
hazardous parts is needed.
141. DON’T
1. Wear loose clothing, jewelry, neckties or other garments and
accessories that can become entangled with moving parts on the
machine. Long hair must be tied back.
1. Distract an operator while operating a machine.
2. Leave machines running without supervision. Turn the power off
completely before leaving the work area.
3. Use your hands to remove material from the
machine; use a vacuum cleaner, brush or rake.
1. Remove, disable, deactivate or try to work around machine guards
and safety devices. They’re here to protect you.
2. Use machines with missing or disabled guards or protective devices.
3. Try to access areas of a machine that have hazardous moving parts
while the machine is running.
4. Use a machine for anything it is not designed to do.
142. Dos (CHEMICAL SAFTEY)
1.Keep a record of the expiration date of chemicals.
2.Know the chemical hazards and the first aid method using the Safety
Data Sheet (former name MSDS) before handling.
3. Post the chemical compatibility chart near the chemical storage area.
4. Water reactive chemicals should not be stored outside of the shed or
where there is a risk of exposure to water.
5.Use appropriate PPE according to the nature of the work and the type
of exposure.
6.Provide safety shower and eye wash near chemical storage area and
ensure its operability.
143. Don’ts
1.Don’t store the chemical in direct sunlight.
2.Don’t spill chemicals.
3.Don’t leave chemical containers with the lid open unattended.
4.Don’t mix contaminated chemical inhibitor sand with other wastes
to avoid fire hazard.
5.Don’t mix different wastes or contaminated chemicals in the same
container to avoid violent reactions.
6.Don’t throw away reactive chemicals without neutralizing.
7.Don’t keep a large inventory of chemicals.
144. Dos (Follow the electrical isolation procedure for handling
any electrical equipment)
1. Use rubber mats for high voltage gear operations.
2. Repair electrical equipment only by authorized personnel.
3. Carefully inspect equipment prior to normalization.
4. Insulate all junction joints and make sure there are no breaks.
5. Know how to use electricity safely.
6. Use only cables or wires or cords of the proper gauge for a particular equipment
according to its load requirements.
7. Read the equipment manual before use.
8. Make sure there are no cuts or joints, cracks, abrasions on the cables or wires.
9. Wear electrically resistant gloves and equipment.
145. Don’ts
1.Don’t use electrical equipment in wet floor or location.
2.Don’t overload electrical outlets or accessories.
3.Don’t use non-standard devices.
4.Don’t assume that the power is disconnected.
5.Don’t attempt to repair damaged electrical equipment unless you are
qualified to do so.
6.Don’t place halogen lamps near combustible materials to prevent fire
hazard due to heat.
7.Don’t use metal ladders when working with or near power lines or
power lines.
148. Don’t Run in the
Factory
Premises
Always use PPE’s
Don’t touch the
moving parts
Don't try job /work for
which you are not
qualified/ authorized/
skilled.
Without
understanding of
SOP(Standard
Operating Procedure)
Don’t Start the work