The document discusses guidelines for the safe management of healthcare waste. Key points include:
- Healthcare waste should be segregated and categorized based on infection risk, hazardous properties, and required treatment/disposal. Colour coding is recommended.
- Targets are set to reduce various waste streams, including hazardous, clinical, and packaging waste sent for disposal.
- Recent regulations define more pharmaceutical waste as hazardous and prohibit mixing hazardous and non-hazardous waste. This requires improved waste segregation.
- Additional guidance is provided for waste management in community settings and by pharmacies. Pharmacies may accept certain unwanted medications but have restrictions on handling, storing, transporting and disposing of healthcare waste.
The document summarizes the Biomedical Waste (Management and Handling) Rules, 1998 which provide rules for handling biomedical waste in India. It outlines 10 categories of biomedical waste and their treatment methods. It specifies procedures for segregation, packaging, transportation, and storage of waste. Authorized persons must treat waste within 48 hours and maintain records. The prescribed authority in each state or union territory will implement these rules by granting authorization to occupiers and ensuring compliance.
This document provides guidelines for waste management in hospitals. It states that 1-2 kg of waste is generated per bed per day in hospitals, of which around 10% is infectious. Proper segregation of waste is key. Waste is categorized into hazardous (infectious and toxic) and non-hazardous waste. The various steps of waste management discussed are segregation, storage, disinfection, transportation, and final disposal through methods like incineration, autoclaving, deep burial, etc. Safety of healthcare workers through proper training and use of protective equipment is emphasized.
The document discusses bio-medical waste management. It defines bio-medical waste and its categories. It notes that approximately 40 tons of waste is generated daily in India, but only 30% undergoes proper disposal. It outlines the various treatment and disposal methods for different categories of waste, including incineration, autoclaving, chemical treatment, and secured landfilling. Color coding and container requirements are also specified. The risks of exposure to healthcare waste include infections, genotoxicity, chemical toxicity, and radioactivity hazards. Proper waste management requires adherence to government rules and public education.
This document provides an overview of medical waste management. It defines different types of medical waste and outlines the key components of an infectious waste management plan, including designation of infectious waste, segregation, packaging, storage, treatment, disposal, and staff training. The objectives are to understand medical waste regulations and how to properly manage infectious waste.
The document discusses biomedical waste management. It defines biomedical waste as waste generated during diagnosis, treatment, or immunization of humans or animals. It notes that biomedical waste includes infectious waste, pathological waste, sharps waste, pharmaceutical waste, genotoxic waste, chemical waste, and radioactive waste. The document also outlines the Ministry of Environment and Forest's classification of biomedical waste into 10 categories and the recommended treatment and disposal methods for each category. Key sources of biomedical waste are identified as hospitals, clinics, labs, and other healthcare facilities.
This document discusses health care waste management. It defines health care waste as waste produced from health care activities like treatment, diagnosis, and research involving humans or animals. It notes that 75-90% of health care waste is non-hazardous general waste, while 10-15% is hazardous. It provides classifications of health care waste from the WHO and describes the sources, categories of exposed persons, routes of transmission, and methods of controlling hazardous waste like reduction, recycling, treatment, and disposal. It outlines the key steps in developing a health care waste management policy and standard operating procedures for waste generation, segregation, collection, storage, transportation, treatment, and disposal.
The document discusses healthcare waste management. It defines different types of healthcare waste, including infectious waste, human/animal parts, sharps, chemicals, pharmaceuticals, radioactive materials, and compressed gas cylinders. It outlines the proper segregation, storage, and disposal methods for each waste type, with infectious and hazardous waste requiring special containment in yellow or red bags. The key steps of waste management are listed as segregation, handling, internal storage, and final disposal. Proper signage and documentation is also important when managing healthcare waste.
The document summarizes the Biomedical Waste (Management and Handling) Rules, 1998 which provide rules for handling biomedical waste in India. It outlines 10 categories of biomedical waste and their treatment methods. It specifies procedures for segregation, packaging, transportation, and storage of waste. Authorized persons must treat waste within 48 hours and maintain records. The prescribed authority in each state or union territory will implement these rules by granting authorization to occupiers and ensuring compliance.
This document provides guidelines for waste management in hospitals. It states that 1-2 kg of waste is generated per bed per day in hospitals, of which around 10% is infectious. Proper segregation of waste is key. Waste is categorized into hazardous (infectious and toxic) and non-hazardous waste. The various steps of waste management discussed are segregation, storage, disinfection, transportation, and final disposal through methods like incineration, autoclaving, deep burial, etc. Safety of healthcare workers through proper training and use of protective equipment is emphasized.
The document discusses bio-medical waste management. It defines bio-medical waste and its categories. It notes that approximately 40 tons of waste is generated daily in India, but only 30% undergoes proper disposal. It outlines the various treatment and disposal methods for different categories of waste, including incineration, autoclaving, chemical treatment, and secured landfilling. Color coding and container requirements are also specified. The risks of exposure to healthcare waste include infections, genotoxicity, chemical toxicity, and radioactivity hazards. Proper waste management requires adherence to government rules and public education.
This document provides an overview of medical waste management. It defines different types of medical waste and outlines the key components of an infectious waste management plan, including designation of infectious waste, segregation, packaging, storage, treatment, disposal, and staff training. The objectives are to understand medical waste regulations and how to properly manage infectious waste.
The document discusses biomedical waste management. It defines biomedical waste as waste generated during diagnosis, treatment, or immunization of humans or animals. It notes that biomedical waste includes infectious waste, pathological waste, sharps waste, pharmaceutical waste, genotoxic waste, chemical waste, and radioactive waste. The document also outlines the Ministry of Environment and Forest's classification of biomedical waste into 10 categories and the recommended treatment and disposal methods for each category. Key sources of biomedical waste are identified as hospitals, clinics, labs, and other healthcare facilities.
This document discusses health care waste management. It defines health care waste as waste produced from health care activities like treatment, diagnosis, and research involving humans or animals. It notes that 75-90% of health care waste is non-hazardous general waste, while 10-15% is hazardous. It provides classifications of health care waste from the WHO and describes the sources, categories of exposed persons, routes of transmission, and methods of controlling hazardous waste like reduction, recycling, treatment, and disposal. It outlines the key steps in developing a health care waste management policy and standard operating procedures for waste generation, segregation, collection, storage, transportation, treatment, and disposal.
The document discusses healthcare waste management. It defines different types of healthcare waste, including infectious waste, human/animal parts, sharps, chemicals, pharmaceuticals, radioactive materials, and compressed gas cylinders. It outlines the proper segregation, storage, and disposal methods for each waste type, with infectious and hazardous waste requiring special containment in yellow or red bags. The key steps of waste management are listed as segregation, handling, internal storage, and final disposal. Proper signage and documentation is also important when managing healthcare waste.
The document discusses biomedical waste management. It defines biomedical waste and lists various sources that produce such waste, such as hospitals, clinics, laboratories, etc. It categorizes waste based on potential hazards such as infectiousness, toxicity, radioactivity. The key aspects of biomedical waste management are segregation, collection, storage, transportation, and treatment. Treatment methods include incineration, chemical disinfection, autoclaving. The Biomedical Waste Management Rules issued by the Ministry of Environment and Forests govern biomedical waste handling and disposal in India.
The document discusses liquid waste management from healthcare facilities. It covers categories of liquid waste, hazards posed, waste generated at facilities, treatment methods, and management approaches. Treatment involves either an effluent treatment plant (ETP) that uses primary and secondary treatment followed by disinfection, or local disinfection units for facilities without ETPs. One model discussed is Hypotreat, a continuous flow reactor in Ludhiana that ensures waste contacts disinfectant for sufficient time. Treated wastewater must meet standards before discharge to sewers. Proper liquid waste management is important to protect health.
Hospitals generate wastewater containing pathogens, pharmaceuticals, heavy metals and other pollutants. This wastewater requires specialized treatment to remove contaminants before discharge. A biological MBBR/IFAS process using Levapor carriers is an effective treatment method. The porous carriers adsorb inhibitory substances and pollutants, allowing specialized biofilm to develop and remove contaminants through biological and chemical processes. This results in consistently high quality effluent meeting discharge standards.
The document discusses biomedical waste (BMW) management. It defines BMW and notes that it is generated from hospitals, clinics, labs, and other medical facilities. BMW is categorized based on infectivity and other hazardous properties. The key aspects of an effective BMW management program are waste segregation, collection, storage, transportation, and treatment. Occupational safety and regulatory compliance are also important. The document provides details on BMW rules and guidelines in India to help facilities properly manage this waste to protect human health and the environment.
The document provides an overview of biomedical waste (BMW) in India, including its definition, categories, generation and management issues. Some key points:
- BMW includes waste generated from healthcare facilities and includes sharps, infectious, pathological and pharmaceutical waste.
- India generates over 3 million tonnes of BMW annually from over 95,000 healthcare facilities. Treatment and disposal of BMW is inadequate, posing risks to health and environment.
- The Biomedical Waste Rules of 1998 govern BMW management and require segregation, storage, transportation, treatment and disposal of different BMW categories. However, compliance remains a challenge.
Health care waste includes all waste generated during healthcare activities. It is classified into infectious, pathological, chemical, pharmaceutical, radioactive and general waste. Improper management of healthcare waste poses hazards to workers, patients and the environment. Key principles for management include duty of care, polluter pays, precautionary and proximity. Management involves segregation, storage, transportation and treatment which includes incineration and non-burn techniques like burial and chemical disinfection. International agreements like the Basel and Stockholm Conventions aim to minimize hazardous waste and promote environmentally sound management.
The document summarizes a study on bio-medical waste management practices at General Hospital in Sirsa, Haryana, India. The study found that while some practices like contracting a private agency for waste collection were in place, proper waste segregation and availability of designated bins were lacking. Recommendations included appointing staff to monitor waste management, conducting regular quality assessments, training and awareness programs for staff, and ensuring safety protocols and environmentally sound disposal practices are followed.
Biomedical waste management in India is important to prevent disease transmission. The types of biomedical waste include infectious waste like human tissues and sharps, and non-infectious waste like packaging. Improper management can spread hepatitis, HIV, and other diseases. The Bio-Medical Waste Rules were created in 1998 to regulate segregation, storage, transportation, treatment and disposal of wastes. Case studies show that some hospitals failed to properly dispose of wastes, putting public health at risk. Strong enforcement of waste management practices is still needed.
Biomedical waste includes solid waste generated during medical procedures that may be infectious, hazardous, or pose a risk to human health. It is important to properly manage biomedical waste to prevent the spread of disease and protect waste handlers, patients, and the public. Key steps in management include segregating waste based on category and risk level, using labeled containers of specific colors for collection and transport, and treating waste through techniques like incineration, autoclaving, or chemical treatment before disposal. Proper waste management is necessary both legally and ethically to limit health and environmental risks.
This document discusses biomedical waste management systems. It defines biomedical waste and categorizes it into 10 categories based on type. The types of waste include human tissue, sharps, medications, and more. Improper management of biomedical waste poses health and environmental risks. The key methods for treating biomedical waste mentioned are incineration, autoclaving, hydroclaving, chemical disinfection, and deep burial. India's Biomedical Waste Management Rules outline treatment and disposal standards, including color-coding of waste containers. The rules were updated in 2016 to apply to all healthcare facilities uniformly.
This document provides an overview of hospital waste (also known as health care waste). It defines hospital waste and classifies it into different categories. The major sources of hospital waste are identified as large hospitals, health care establishments, laboratories, and related facilities. The document discusses the health hazards posed by infectious, sharp, pathological, pharmaceutical, chemical, radioactive, and other types of hospital waste if not properly managed. Specific risks are outlined for workers handling waste as well as patients and visitors. Proper management of hospital waste is necessary to prevent dangers to human health and the environment.
The document discusses bio-medical waste management. It begins by introducing the types of hazardous materials generated in hospitals, including infected materials, cytotoxic drugs, and radioactive substances. It then describes the nature and quantities of hospital waste, classifying it as hazardous (15%) and non-hazardous (85%). Hazardous waste is further divided into infectious (10%) and toxic (5%) categories. The document outlines the health hazards of improper management, principles of infection control, and the Bio-Medical Waste Rules for treatment and disposal of different categories of waste.
The document discusses biomedical waste management. It defines biomedical waste and explains the need for proper management due to risks to health and environment. It outlines various categories of waste like infectious, pathological, radioactive and their appropriate treatment and disposal methods like incineration, autoclaving, chemical disinfection and others. The document provides guidance on proper waste segregation, collection, storage, transportation and treatment to safely manage biomedical waste.
1) Medical care is important but generates hazardous waste that can spread infections if not properly disposed.
2) Bio-medical waste is any waste generated during diagnosis, treatment, or testing and includes infectious, pathological, pharmaceutical, radioactive, and heavy metal waste.
3) Proper handling includes segregation, storage, collection, transportation, and treatment to disinfect waste through processes like incineration, autoclaving, chemical treatment, or shredding before safe disposal.
This document discusses biomedical waste and its management. It defines biomedical waste and categories of waste. It describes the health hazards posed by different types of waste and steps in waste management including segregation, storage, transportation, and treatment. Common treatment methods discussed are incineration, autoclaving, chemical disinfection, and deep burial. Standards and guidelines for waste treatment using these methods are also outlined.
This document discusses hospital waste management. It classifies hospital waste into general, pathological, sharps, infectious, chemical, radioactive, pharmaceutical, and genotoxic categories. The main sources of hospital waste are governmental hospitals, private hospitals, nursing homes, doctors' offices, laboratories, and research organizations. Improper management of hospital waste poses infection risks to sanitation workers, medical staff, patients, and visitors from pathogens in waste like HIV, hepatitis viruses, bacteria like Salmonella and Pseudomonas, and parasites like Wuchereria. The key aspects of management are segregation by color-coded bags, collection, storage for less than 6 hours, transportation in sealed containers, and treatment through incineration or autoclaving before safe
India is likely to generate about 775.5 tons of medical wast per day by 2020, from the current level of 550.9 tons per day growing at CAGR about 7%.
Safe and effective management of waste is not only a legal necessity but also a social responsibility.
The document discusses health care waste, including its sources, composition, and risks. It defines health care waste as any waste generated by health care establishments, including hospitals, clinics, laboratories, and homes. Approximately 75-90% is non-hazardous, similar to household waste, while 10-25% is hazardous and can pose health risks if not properly handled. The document then categorizes and describes different types of health care waste and the potential health hazards they pose if mismanaged.
UNSW - How we manage waste and recyclingAaron Magner
UNSW produces over 1,000 tonnes of waste per year. The university has robust recycling programs for paper, cardboard, mixed containers, food organics, green waste, batteries, mobile phones, printer cartridges, and fluorescent light bulbs. Recyclable materials are processed by external partners and can be remanufactured or recycled. Programs encourage waste reduction through initiatives like reusable coffee cups and stationery reuse. The carbon price is expected to increase the cost of landfilling waste and make recycling relatively more cost effective. UNSW is committed to further reducing waste and processing materials sustainably.
The document provides training on waste management for Frimley Park NHS Foundation Trust. It discusses the different types of clinical and general waste produced by the Trust, appropriate disposal methods based on waste type, and relevant legislation. Color-coding is used to identify waste receptacles. The Trust produces over 1,000 tonnes of clinical waste annually at a cost of over £150,000 for disposal. Staff are responsible for properly sorting and containing waste according to trust procedures to ensure compliance with regulations.
The document discusses biomedical waste management. It defines biomedical waste and lists various sources that produce such waste, such as hospitals, clinics, laboratories, etc. It categorizes waste based on potential hazards such as infectiousness, toxicity, radioactivity. The key aspects of biomedical waste management are segregation, collection, storage, transportation, and treatment. Treatment methods include incineration, chemical disinfection, autoclaving. The Biomedical Waste Management Rules issued by the Ministry of Environment and Forests govern biomedical waste handling and disposal in India.
The document discusses liquid waste management from healthcare facilities. It covers categories of liquid waste, hazards posed, waste generated at facilities, treatment methods, and management approaches. Treatment involves either an effluent treatment plant (ETP) that uses primary and secondary treatment followed by disinfection, or local disinfection units for facilities without ETPs. One model discussed is Hypotreat, a continuous flow reactor in Ludhiana that ensures waste contacts disinfectant for sufficient time. Treated wastewater must meet standards before discharge to sewers. Proper liquid waste management is important to protect health.
Hospitals generate wastewater containing pathogens, pharmaceuticals, heavy metals and other pollutants. This wastewater requires specialized treatment to remove contaminants before discharge. A biological MBBR/IFAS process using Levapor carriers is an effective treatment method. The porous carriers adsorb inhibitory substances and pollutants, allowing specialized biofilm to develop and remove contaminants through biological and chemical processes. This results in consistently high quality effluent meeting discharge standards.
The document discusses biomedical waste (BMW) management. It defines BMW and notes that it is generated from hospitals, clinics, labs, and other medical facilities. BMW is categorized based on infectivity and other hazardous properties. The key aspects of an effective BMW management program are waste segregation, collection, storage, transportation, and treatment. Occupational safety and regulatory compliance are also important. The document provides details on BMW rules and guidelines in India to help facilities properly manage this waste to protect human health and the environment.
The document provides an overview of biomedical waste (BMW) in India, including its definition, categories, generation and management issues. Some key points:
- BMW includes waste generated from healthcare facilities and includes sharps, infectious, pathological and pharmaceutical waste.
- India generates over 3 million tonnes of BMW annually from over 95,000 healthcare facilities. Treatment and disposal of BMW is inadequate, posing risks to health and environment.
- The Biomedical Waste Rules of 1998 govern BMW management and require segregation, storage, transportation, treatment and disposal of different BMW categories. However, compliance remains a challenge.
Health care waste includes all waste generated during healthcare activities. It is classified into infectious, pathological, chemical, pharmaceutical, radioactive and general waste. Improper management of healthcare waste poses hazards to workers, patients and the environment. Key principles for management include duty of care, polluter pays, precautionary and proximity. Management involves segregation, storage, transportation and treatment which includes incineration and non-burn techniques like burial and chemical disinfection. International agreements like the Basel and Stockholm Conventions aim to minimize hazardous waste and promote environmentally sound management.
The document summarizes a study on bio-medical waste management practices at General Hospital in Sirsa, Haryana, India. The study found that while some practices like contracting a private agency for waste collection were in place, proper waste segregation and availability of designated bins were lacking. Recommendations included appointing staff to monitor waste management, conducting regular quality assessments, training and awareness programs for staff, and ensuring safety protocols and environmentally sound disposal practices are followed.
Biomedical waste management in India is important to prevent disease transmission. The types of biomedical waste include infectious waste like human tissues and sharps, and non-infectious waste like packaging. Improper management can spread hepatitis, HIV, and other diseases. The Bio-Medical Waste Rules were created in 1998 to regulate segregation, storage, transportation, treatment and disposal of wastes. Case studies show that some hospitals failed to properly dispose of wastes, putting public health at risk. Strong enforcement of waste management practices is still needed.
Biomedical waste includes solid waste generated during medical procedures that may be infectious, hazardous, or pose a risk to human health. It is important to properly manage biomedical waste to prevent the spread of disease and protect waste handlers, patients, and the public. Key steps in management include segregating waste based on category and risk level, using labeled containers of specific colors for collection and transport, and treating waste through techniques like incineration, autoclaving, or chemical treatment before disposal. Proper waste management is necessary both legally and ethically to limit health and environmental risks.
This document discusses biomedical waste management systems. It defines biomedical waste and categorizes it into 10 categories based on type. The types of waste include human tissue, sharps, medications, and more. Improper management of biomedical waste poses health and environmental risks. The key methods for treating biomedical waste mentioned are incineration, autoclaving, hydroclaving, chemical disinfection, and deep burial. India's Biomedical Waste Management Rules outline treatment and disposal standards, including color-coding of waste containers. The rules were updated in 2016 to apply to all healthcare facilities uniformly.
This document provides an overview of hospital waste (also known as health care waste). It defines hospital waste and classifies it into different categories. The major sources of hospital waste are identified as large hospitals, health care establishments, laboratories, and related facilities. The document discusses the health hazards posed by infectious, sharp, pathological, pharmaceutical, chemical, radioactive, and other types of hospital waste if not properly managed. Specific risks are outlined for workers handling waste as well as patients and visitors. Proper management of hospital waste is necessary to prevent dangers to human health and the environment.
The document discusses bio-medical waste management. It begins by introducing the types of hazardous materials generated in hospitals, including infected materials, cytotoxic drugs, and radioactive substances. It then describes the nature and quantities of hospital waste, classifying it as hazardous (15%) and non-hazardous (85%). Hazardous waste is further divided into infectious (10%) and toxic (5%) categories. The document outlines the health hazards of improper management, principles of infection control, and the Bio-Medical Waste Rules for treatment and disposal of different categories of waste.
The document discusses biomedical waste management. It defines biomedical waste and explains the need for proper management due to risks to health and environment. It outlines various categories of waste like infectious, pathological, radioactive and their appropriate treatment and disposal methods like incineration, autoclaving, chemical disinfection and others. The document provides guidance on proper waste segregation, collection, storage, transportation and treatment to safely manage biomedical waste.
1) Medical care is important but generates hazardous waste that can spread infections if not properly disposed.
2) Bio-medical waste is any waste generated during diagnosis, treatment, or testing and includes infectious, pathological, pharmaceutical, radioactive, and heavy metal waste.
3) Proper handling includes segregation, storage, collection, transportation, and treatment to disinfect waste through processes like incineration, autoclaving, chemical treatment, or shredding before safe disposal.
This document discusses biomedical waste and its management. It defines biomedical waste and categories of waste. It describes the health hazards posed by different types of waste and steps in waste management including segregation, storage, transportation, and treatment. Common treatment methods discussed are incineration, autoclaving, chemical disinfection, and deep burial. Standards and guidelines for waste treatment using these methods are also outlined.
This document discusses hospital waste management. It classifies hospital waste into general, pathological, sharps, infectious, chemical, radioactive, pharmaceutical, and genotoxic categories. The main sources of hospital waste are governmental hospitals, private hospitals, nursing homes, doctors' offices, laboratories, and research organizations. Improper management of hospital waste poses infection risks to sanitation workers, medical staff, patients, and visitors from pathogens in waste like HIV, hepatitis viruses, bacteria like Salmonella and Pseudomonas, and parasites like Wuchereria. The key aspects of management are segregation by color-coded bags, collection, storage for less than 6 hours, transportation in sealed containers, and treatment through incineration or autoclaving before safe
India is likely to generate about 775.5 tons of medical wast per day by 2020, from the current level of 550.9 tons per day growing at CAGR about 7%.
Safe and effective management of waste is not only a legal necessity but also a social responsibility.
The document discusses health care waste, including its sources, composition, and risks. It defines health care waste as any waste generated by health care establishments, including hospitals, clinics, laboratories, and homes. Approximately 75-90% is non-hazardous, similar to household waste, while 10-25% is hazardous and can pose health risks if not properly handled. The document then categorizes and describes different types of health care waste and the potential health hazards they pose if mismanaged.
UNSW - How we manage waste and recyclingAaron Magner
UNSW produces over 1,000 tonnes of waste per year. The university has robust recycling programs for paper, cardboard, mixed containers, food organics, green waste, batteries, mobile phones, printer cartridges, and fluorescent light bulbs. Recyclable materials are processed by external partners and can be remanufactured or recycled. Programs encourage waste reduction through initiatives like reusable coffee cups and stationery reuse. The carbon price is expected to increase the cost of landfilling waste and make recycling relatively more cost effective. UNSW is committed to further reducing waste and processing materials sustainably.
The document provides training on waste management for Frimley Park NHS Foundation Trust. It discusses the different types of clinical and general waste produced by the Trust, appropriate disposal methods based on waste type, and relevant legislation. Color-coding is used to identify waste receptacles. The Trust produces over 1,000 tonnes of clinical waste annually at a cost of over £150,000 for disposal. Staff are responsible for properly sorting and containing waste according to trust procedures to ensure compliance with regulations.
The document provides information on hospital waste management. It defines hospital waste and classifies it according to the WHO into 10 categories including general, pathological, sharps, infectious, chemical, radioactive, pharmaceutical, pressurized containers, genotoxic, and anatomical waste. It describes the sources of healthcare waste and the magnitude of the problem globally and in Nepal. The key aspects of healthcare waste management covered are segregation, collection, storage, transportation, treatment and disposal. Common treatment techniques discussed are incineration, chemical disinfection, thermal treatments, and land disposal. The document emphasizes the importance of proper waste management to prevent contamination and disease transmission.
The document summarizes a research project on waste management practices in clinical laboratories at Suez Canal University Hospital and Ismailia General Hospital. The project aimed to describe current waste management practices, identify occupational hazards, and recommend improvements based on international standards. Results showed that while some safety training and practices were followed, waste containers were often improperly handled and equipment was not clearly labeled. Recommendations included improved labeling, personal protective equipment, emergency procedures, waste segregation, and handling/disposal.
The document discusses waste management practices for construction sites. It outlines the waste management hierarchy of reduce, reuse, recycle, recover, disposal. It emphasizes identifying and separating waste streams. Regulations require a waste management plan and proper handling, transport, and disposal of waste, including hazardous waste. Good practices include designating a waste manager, separating waste, and using prefabricated materials to reduce waste. Metrics like the BRE SMARTWaste tool can benchmark waste.
Healthcare waste management assessment and strategies for global fund projectsUNDP Eurasia
This document summarizes a presentation given by UNDP and ETLog experts on assessing and developing strategies for healthcare waste management in Global Fund projects. It discusses the guiding principles of protecting human rights and the environment. Examples of waste streams from HIV/AIDS, TB, and malaria grants are provided. International agreements and sample impacts on Global Fund grants are summarized. Challenges with waste management systems in countries are described. The presentation promotes integrating environmental safeguards into all Global Fund grants and developing a healthcare waste management toolkit.
This document discusses various topics related to environmental pollution and waste management, including:
- Classification of wastes into controlled, hazardous, inert, and other categories.
- Integrated pollution control which recognizes combined effects of different types of pollution and requires considering impacts to all environments.
- Waste disposal hierarchy and options like reduction, reuse, recycling, incineration, landfilling, and composting.
- Legal regimes like the Environmental Protection Act that establish duties of care for waste holders and carriers and require permits, documentation, and following best practices.
DIEM Ltd healthcare waste container colour coding summaryDIEM Ltd
Briefing note on UK Department of Health recommendations for colour coding of sharps waste recepticles.
Please email info@diemltd.co.uk to request free pdf copy of this document.
This document provides an overview of laboratory quality management principles. It discusses total quality management philosophy and history. The key aspects covered include the quality management system and its essential elements as defined by ISO 15189, such as organization, personnel, equipment, inventory management, and process control. It also distinguishes between quality assurance and quality control. Accuracy and precision, calibration, and qualification are explained. Statistical tools for quality control like control charts and Pareto analysis are also introduced. The document concludes with the author's laboratory quality policy statement.
3.6. Reducing Pharmaceutical Waste in Clinical Care (Kreisberg)Teleosis Institute
This document discusses current federal and state activities around minimizing pharmaceutical waste. It outlines research being done on occurrence and treatment options for pharmaceuticals in the environment. It also discusses federal legislation like the Safe Drug Disposal Act and various state legislation regarding take-back programs. The document notes that 54% of people throw medicines in the trash and 35% flush them, contributing to pharmaceuticals in waterways. It provides strategies to minimize waste at the prescribing, dispensing, and patient levels, and encourages proper disposal and take-back programs.
Hospital waste management Real time AnalysisJobi Mathai
This document discusses biomedical waste generated in healthcare settings. It states that about 85% of waste from hospitals is non-hazardous, while 10% is infectious waste and 5% is hazardous. It provides examples of different types of clinical, laboratory, and non-clinical waste and how waste is typically collected and disposed of at hospitals. The document notes that medical waste can pollute the environment and pose health risks if not properly managed.
A empresa de tecnologia anunciou um novo smartphone com câmera aprimorada, maior tela e bateria de longa duração. O dispositivo também possui processador mais rápido e armazenamento expansível. O lançamento está programado para o próximo mês com preço inicial sugerido de US$799.
This document describes the reverse vending machine services provided by NexCycle and CBSI in California. NexCycle has over 300 recycling centers throughout California and has been providing recycling services since 1986. CBSI supplies reverse vending machines and has locations throughout the country. Both companies are members of various recycling and retail organizations. NexCycle offers three service packages for automated reverse vending machines that differ in the level of involvement required by retailers. The services include emptying machines, logistics, and ensuring regulatory compliance.
R E C Y C L E Towards A Greener World!nurimah azmi
This document provides information about recycling and how it can be done. It defines recycling as using something again, such as making new newspapers from old newspapers or new aluminum cans from old cans. This is called closed-loop recycling. It also lists different materials that can and cannot be recycled, such as glass jars, paper, aluminum, steel, and some plastics. Finally, it outlines some of the benefits of recycling like reducing waste and pollution while saving energy and natural resources.
UNSW produces various waste streams including paper, cardboard, e-waste, batteries, mobile phones, printer cartridges, fluorescent lights, food waste, green waste, and hazardous waste from research activities. UNSW has programs in place to collect these waste streams for recycling or safe disposal. Paper, cardboard, batteries, mobile phones, printer cartridges, and fluorescent lights can be recycled through bins located across campus. Food waste is converted to compost and cooking oil is converted to biodiesel. Construction and demolition waste is managed through on-site separation requirements. Hazardous waste from research is disposed of by specialist contractors.
This document discusses considerations for testing sites for graywater irrigation and potential impacts to groundwater. It provides summaries of what others have said about graywater systems and their ability to effectively treat wastewater on-site. Guidelines from the state environmental and health agencies regarding graywater usage and underground injection are presented, noting restrictions within groundwater source protection zones.
Nanotechnology offers promising solutions to support the growing world population in a sustainable way. It can help meet increasing energy needs through more efficient solar and wind technologies. Nanoparticles can enhance batteries, biocides, and water filtration. In healthcare, nanotechnology allows for earlier cancer detection, more targeted treatment, and improved heart disease control through new diagnostic tests and medical devices. While still in development, nanotechnology has the potential to revolutionize energy production, consumer goods, agriculture, and medicine by exploiting matter at the microscopic scale.
1) Reverse vending machines are automated recycling machines that reward users for recycling plastic bottles and cans by dispensing change or vouchers.
2) A survey found that 33% of USF students admit to not using campus recycling bins and 70% agree recycling is an issue on campus.
3) The document proposes installing a reverse vending machine on campus to incentivize recycling and notes that 94% of students said they would use such a machine.
Beijing is introducing reverse vending machines that pay subway credits in exchange for plastic bottles to help reduce environmental impact and improve profits for recycling companies. Over 100 machines will be installed, paying riders between 1-5 fen per bottle. The recycling firm hopes the machines will allow them to collect directly from the public, earn government subsidies, and generate advertising revenue. However, experts are skeptical because China already has a large informal bottle collection industry, and the machines may not be able to offer competitive enough prices to attract people away from existing collectors.
The document provides an overview of the Bio-Medical Waste Management (Amendment) Rules 2018 in India. It discusses key aspects of the original 1998 rules and subsequent amendments, including categories of biomedical waste, segregation and handling requirements, and responsibilities of occupiers and operators. The 2018 amendments updated guidelines for waste treatment, phased out certain plastics, established timelines for waste tracking systems, and modified reporting procedures. Proper management of biomedical waste is important for public health and environmental protection.
This document discusses biomedical waste management. It begins with an introduction about the importance of proper hospital waste management for patient and staff health. It then defines key terminology related to biomedical waste. It classifies healthcare waste into categories including biomedical waste, general waste, and other wastes. It describes the color coding and container types used for waste segregation. It provides guidelines for biomedical waste collection, packaging, labeling, and interim storage. It concludes with information on biomedical waste treatment and disposal facilities and specific COVID-19 waste handling guidelines.
Biomedical waste management and biohazards by Dr. Sonam AggarwalDr. Sonam Aggarwal
According to biomedical waste (management and Handling rules 1998 of India) –
"bio-medical waste" means any waste, which is generated during the diagnosis, treatment or immunization of human beings or animals or research activities pertaining thereto or in the production or testing of biological or in health camps.
https://www.slideshare.net/SonamAggarwal7/biomedical-waste-management-and-biohazards-by-dr-sonam-aggarwal
This document provides information on the Bio Medical Waste Management Rules, 2016 in India. It introduces the rules and their objective of providing regulatory framework for managing bio-medical waste. It defines bio-medical waste and explains the types of waste generated from healthcare facilities. It emphasizes the importance of proper waste segregation and describes the 4 waste categories and their treatment and disposal requirements according to the rules. Improper management can pose health and environmental risks. The rules aim to standardize waste management practices across India.
Prof. Prashant Mehta's document discusses healthcare waste management in India. It begins by classifying different types of waste, including municipal solid waste, industrial waste, and bio-medical waste. It then provides details on India's regulatory framework for healthcare waste management. The Bio-Medical Waste Management and Handling Rules establish standards for segregating, transporting, treating, and disposing of different categories of bio-medical waste to prevent health and environmental risks. However, problems still exist in India with incomplete treatment and illegal dumping of untreated healthcare waste. Proper management of healthcare waste is important for public health.
bio medical waste management & handling- rules and gui_2Arvind Kumar
This document discusses the development and key aspects of India's Bio-Medical Waste (Management & Handling) Rules. It outlines:
- The origins of the rules in response to directives from the Supreme Court in 1996 and standards from the Central Pollution Control Board.
- The rules have been amended several times, most recently in 2003, and require authorization, annual reporting, and establish an advisory committee.
- The rules mandate segregation, packaging, transportation and storage of bio-medical waste according to waste category and treatment method. There are 10 categories of waste and specific treatment requirements for each.
- Facilities must meet operating standards for incineration, including a minimum 99% combustion efficiency and
The document summarizes the key aspects of the Biomedical Waste Management Rules 2016 and its 2018 amendment in India. It defines biomedical waste and explains the importance of proper management. It outlines the classification of waste into 4 color-coded categories and their treatment and disposal options. It describes the steps of waste segregation, collection, transportation, and disposal. It highlights some major changes introduced in the 2018 amendment like phasing out of chlorinated plastic and establishing a barcode system.
This document provides an overview of biomedical waste management. It begins with introductions and definitions. It then discusses the historical background, classifications, risks, and rationale for proper disposal of biomedical waste. Key points of the BMWM rules in India are outlined. The document reviews generation sources and amounts of waste. It describes the steps in management including minimization, collection, segregation, storage, transportation, treatment and disposal. Common treatment and disposal techniques like incineration are also summarized. The document concludes with a discussion of dental office waste management.
Biomedical Waste Management with Case Study ppt by Avaneesh YadavMNNIT Allahabad
This presentation summarizes bio-medical waste management practices at a rural hospital in Chhattisgarh, India. It finds that the hospital generates around 887kg of waste per day, of which 200kg requires special handling and disposal methods. Currently, the hospital uses an incinerator to treat 71.6kg of infectious waste per day and landfills the remaining 128.4kg. However, the presentation suggests replacing the incinerator with plasma pyrolysis, a more economical and environmentally friendly waste treatment technology.
Biomedical Waste Management-WPS Office.pptxSudipta Roy
The document discusses guidelines for managing biomedical waste from hospitals and healthcare facilities in India. It defines biomedical waste and outlines 10 categories of waste. It describes rules for segregating, storing, transporting, and disposing of different types of biomedical waste. Methods of disposal include incineration, autoclaving, microwaving, shredding, and deep burial. The objectives are to protect human health and the environment from potential risks of biomedical waste. Hospitals must implement proper waste management practices and training programs according to the Bio Medical Waste (Management and Handling) Rules.
- Biomedical waste poses health and environmental risks if not properly managed. It is essential to have proper rules and practices for handling, treating and disposing of different categories of biomedical waste.
- The BMW Rules 2016 expanded the scope of regulated waste, established clearer operator duties, introduced a barcoding system, and emphasized safer treatment methods like hydroclave and plasma pyrolysis over incineration.
- The rules categorize biomedical waste into 4 color-coded categories and specify appropriate containment, treatment and disposal methods for each category to minimize risks to workers, patients and the environment.
The document summarizes key points of the Bio-Medical Waste Management Rules 2016 in India. It outlines the classification of biomedical waste into 8 categories and their corresponding treatment and disposal methods. It discusses the duties of occupiers and operators in handling, treating, and disposing of biomedical waste properly as per the rules for ensuring safety. It emphasizes proper segregation, packaging, storage and transportation of biomedical waste to authorized common treatment facilities within 75 km.
IMPORTANT STEPS THAT WILL HELP YOU TO REDUCE MEDICAL WASTEGbwaste Management
It is within your ability to reduce waste and create cost-effective alternatives. Even minimal waste reduction steps can drastically change the environment and pace of public health risks. Following these recommendations is an excellent beginning step. Your next step should be to locate a reputable medical waste disposal service.
The document discusses bio-medical waste management issues and challenges faced by hospitals. It outlines various environmental laws related to waste management. It explains that healthcare waste includes waste generated in hospitals, laboratories, and research facilities. The basic principles of bio-medical waste management include segregation, containment, processing, storage and disposal of waste. Key challenges include lack of awareness, non-compliance with rules, inadequate protection of healthcare workers, and improper waste disposal. Addressing these issues requires robust policies, training, monitoring, and allocating sufficient resources.
The document discusses strategies for hospital waste management. It defines biomedical waste and outlines the key elements of the BMW Act and Rules, including classifications of waste, standards, and management steps. BMW is segregated into 4 categories and treated through various processes like incineration, autoclaving, or hydroclaving before disposal. Proper handling and treatment is important to reduce health and environmental risks from hazardous waste.
The document discusses India's Biomedical Waste Management and Handling Rules. It defines biomedical waste and outlines responsibilities for waste generators. Key points include:
- The rules classify and regulate waste from healthcare facilities and research. Occupiers must obtain authorization to treat waste onsite or use authorized common waste treatment facilities.
- Generators must segregate, store, transport, and treat waste properly before disposal. Liquid waste must also be disinfected before discharge.
- Proper record keeping of waste quantities and handling is required. Regular staff training is important to ensure proper biomedical waste segregation.
Similar to Safe management of healthcare waste (20)
An outbreak of chikungunya virus has spread like an epidemic in the capital city this year, with doctors seeing many young patients suffering from acute joint pain wheelchair bound. While only a few labs can test for the virus, it is estimated that 80% of patients presenting with viral fever and joint pain symptoms at some hospitals have tested positive for chikungunya. The outbreak has been attributed to increased mosquito breeding due to heavy monsoon rains. Treatment involves painkillers, though paracetamol often provides little relief from the debilitating joint pain associated with the illness.
Your plastic water bottle could be as dirty as your toiletNursing Hi Nursing
Researchers tested four types of reusable water bottles and found that bottles that were used for a week without washing had more bacteria than a toilet seat. Specifically, the slide-top bottle had more bacteria than an average toilet seat, pet bowl, or kitchen sink. Over 60% of the bacteria found on the bottles could make people sick. The cleanest bottle type tested was the straw-top bottle, and researchers also found that stainless steel bottles were healthier options than plastic bottles.
This document provides information and strategies for sun safety at resorts. It discusses establishing a sun safety program called "Go Sun Smart" that would provide education materials to guests and training to employees. The program is based on over a decade of sun safety research focusing on outdoor workers and recreationists. The document then covers the skin cancer problem, the effects of UV radiation, assessing personal risk factors, and practicing sun safety strategies like using shade, covering up with protective clothing and sunglasses, and applying sunscreen. It emphasizes the importance of monitoring UV levels and reapplying sunscreen regularly.
The document discusses various topics related to transport operations and ambulance services including emergency vehicle design, checking ambulances, ambulance equipment, driving techniques, incident response, transporting patients, and air medical transports. It provides information on setting up landing zones and transferring patients safely. National EMS education standard competencies are also listed that cover operations, transport safety, medicine, infectious diseases and more.
This document provides information and strategies for sun safety at resorts. It discusses establishing a sun safety program called "Go Sun Smart" that would provide education materials to guests and training to employees. The program is based on over a decade of sun safety research focusing on outdoor workers and recreationists. The document then covers topics like the skin cancer problem, how UV radiation affects skin, assessing personal risk factors, and practicing sun safety strategies like using shade, covering up with protective clothing, and applying sunscreen properly. It emphasizes the importance of early skin cancer detection.
Pizza shops and steakhouses that use charcoal or wood burners produce significant emissions and damage the environment in major cities like Sao Paulo, Brazil. A study found emissions from thousands of pizza shops and domestic waste burning contribute to Sao Paulo's air pollution problems despite its green vehicle policies. While vehicles use cleaner biofuels, emissions from over 800 pizza shops using wood burning stoves daily and over 1,000 pizzas produced for home delivery weekly on wood burning stoves negate some of the environmental benefits.
The document discusses the effects of marijuana use and abuse. It defines marijuana and how it is consumed. It outlines short-term effects like rapid heart rate and long-term effects on the brain, lungs and other organs. Signs of addiction and dependency are provided. Treatment typically involves detoxification and support to reintegrate into society. Myths about marijuana are debunked, such as it being safe because it is a plant. The summary emphasizes that marijuana is harmful and can isolate users from society, and that treatment requires holistic social support.
Bill Gates says that genetically modified mosquitoes may be used to fight malaria within the next five years. Researchers are using a gene editing technique called a "gene drive" to alter mosquitoes so they are resistant to diseases like malaria and dengue. Gates believes this technology could dramatically reduce malaria deaths by suppressing mosquito populations. However, some scientists have raised concerns that unintended mutations in released mosquitoes could have unknown consequences.
A study from the University of Manchester found that frequent childhood moves, especially during early adolescence, are linked to higher risks of negative outcomes in adulthood such as suicide attempts, criminal violence, mental illness, substance abuse, and premature death. The researchers collected data on all people born in Denmark from 1971 to 1997, documenting every residential move from birth to age 14, and correlated subsequent adverse events in adulthood.
An international team of scientists reviewed 19 previous studies involving 68,000 elderly people and found no link between high cholesterol levels and heart disease in those over 60 years old. The study suggests that 92% of elderly people with high cholesterol lived as long or longer than those with low cholesterol. The authors call for a reevaluation of statin prescriptions for the elderly, but their findings have been criticized by other academics who question the research methods. Some experts say that as people age, many other factors impact health, making the effects of high cholesterol less clear.
India has seen a decline in childhood stunting but now faces rising issues with diabetes and being overweight. The number of diabetics in India is projected to increase to over 100 million in the next 15 years. While India has made progress against undernutrition, public health policies now need to also address the growing problems of overnutrition and diabetes. Non-communicable diseases like heart disease also place a large economic burden on Indian families.
Scientists have developed the world's first vaccine for Toxic Shock Syndrome (TSS), a severe circulatory and organ failure caused by bacterial toxins from Staphylococcus bacteria. The vaccine was successfully tested in a Phase I trial. TSS, also known as "tampon disease", often affects young women using super absorbent tampons and was first described in the 1980s. This led to regulations on the absorbency of tampons.
Saxbee Consultants holds the number 1 position across major social media platforms when searched, including Google, Yahoo, Bing, Facebook, LinkedIn, SlideShare, Twitter, and India Mart. The document lists Saxbee Consultants as having the top result on each of these search and social media sites.
According to research studies, employee health risks are directly related to increased costs for companies, as healthy employees can contribute up to 12.5% more to a company. The document also lists various health and wellness magazines and journals the trainer has experience with, and states that the goal is to help individuals tap their highest potential through healthier lifestyle choices involving exercise and mental stimulation.
Nurses and attendants are available to provide care for a healthy recovery. This email is regarding nurse staffing and bookings can be made by contacting nursingnursing@yahoo.in. Happy Nurse Day.
Saxbee Consultants is collecting ideas from the public to present to the Prime Minister of India on January 31, 2016. The public is encouraged to submit their ideas for building a stronger India by emailing them to saxbeeconsultantspm@gmail.com. Saxbee Consultants previously faced a technical issue that prevented emails from being received but their technicians have now fixed the problem, so the public is asked to resend any ideas they had submitted.
Saxbee Consultants is collecting ideas from the public to present to the Prime Minister of India on January 31, 2016. The public is encouraged to submit their ideas for building a stronger India by emailing them to saxbeeconsultantspm@gmail.com. Saxbee Consultants previously faced a technical issue that prevented emails from being received but their technicians have now fixed the problem, so the public is requested to resend any ideas.
Saxbee Consultants is collecting ideas from the public to present to the Prime Minister of India on January 31, 2016. The public is encouraged to submit their ideas for building a stronger India by emailing them to saxbeeconsultantspm@gmail.com. Saxbee Consultants previously faced a technical issue that prevented emails from being received but their technicians have now fixed the problem, so the public is asked to resend any ideas they had submitted.
Air India has introduced yoga sessions for newly-recruited cabin crew and pilots undergoing training, as well as a two-day yoga workshop for senior management, to help staff cope with stress and bring discipline. Trainees are required to attend early morning yoga sessions, while the workshop for managers will be held later in June. The initiatives were proposed by Air India's personnel department and coincide with Prime Minister Modi's push to celebrate International Yoga Day.
The author discusses the health risks of raising children in Delhi, India due to the city's extremely high air pollution levels. He describes how his young son was hospitalized twice for respiratory issues caused by Delhi's air. Experts advise that the pollution will likely cause permanent lung damage in children and reduce their life expectancy. While some expats choose to remain in Delhi for work, the author is reconsidering staying due to the threats to his family's health from the polluted air and contaminated water.
Muktapishti is a traditional Ayurvedic preparation made from Shoditha Mukta (Purified Pearl), is believed to help regulate thyroid function and reduce symptoms of hyperthyroidism due to its cooling and balancing properties. Clinical evidence on its efficacy remains limited, necessitating further research to validate its therapeutic benefits.
Does Over-Masturbation Contribute to Chronic Prostatitis.pptxwalterHu5
In some case, your chronic prostatitis may be related to over-masturbation. Generally, natural medicine Diuretic and Anti-inflammatory Pill can help mee get a cure.
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8 Surprising Reasons To Meditate 40 Minutes A Day That Can Change Your Life.pptxHolistified Wellness
We’re talking about Vedic Meditation, a form of meditation that has been around for at least 5,000 years. Back then, the people who lived in the Indus Valley, now known as India and Pakistan, practised meditation as a fundamental part of daily life. This knowledge that has given us yoga and Ayurveda, was known as Veda, hence the name Vedic. And though there are some written records, the practice has been passed down verbally from generation to generation.
Local Advanced Lung Cancer: Artificial Intelligence, Synergetics, Complex Sys...Oleg Kshivets
Overall life span (LS) was 1671.7±1721.6 days and cumulative 5YS reached 62.4%, 10 years – 50.4%, 20 years – 44.6%. 94 LCP lived more than 5 years without cancer (LS=2958.6±1723.6 days), 22 – more than 10 years (LS=5571±1841.8 days). 67 LCP died because of LC (LS=471.9±344 days). AT significantly improved 5YS (68% vs. 53.7%) (P=0.028 by log-rank test). Cox modeling displayed that 5YS of LCP significantly depended on: N0-N12, T3-4, blood cell circuit, cell ratio factors (ratio between cancer cells-CC and blood cells subpopulations), LC cell dynamics, recalcification time, heparin tolerance, prothrombin index, protein, AT, procedure type (P=0.000-0.031). Neural networks, genetic algorithm selection and bootstrap simulation revealed relationships between 5YS and N0-12 (rank=1), thrombocytes/CC (rank=2), segmented neutrophils/CC (3), eosinophils/CC (4), erythrocytes/CC (5), healthy cells/CC (6), lymphocytes/CC (7), stick neutrophils/CC (8), leucocytes/CC (9), monocytes/CC (10). Correct prediction of 5YS was 100% by neural networks computing (error=0.000; area under ROC curve=1.0).
Basavarajeeyam is a Sreshta Sangraha grantha (Compiled book ), written by Neelkanta kotturu Basavaraja Virachita. It contains 25 Prakaranas, First 24 Chapters related to Rogas& 25th to Rasadravyas.
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The UK is currently facing a Adhd Medication Shortage Uk, which has left many patients and their families grappling with uncertainty and frustration. ADHD, or Attention Deficit Hyperactivity Disorder, is a chronic condition that requires consistent medication to manage effectively. This shortage has highlighted the critical role these medications play in the daily lives of those affected by ADHD. Contact : +1 (747) 209 – 3649 E-mail : sales@trinexpharmacy.com
share - Lions, tigers, AI and health misinformation, oh my!.pptxTina Purnat
• Pitfalls and pivots needed to use AI effectively in public health
• Evidence-based strategies to address health misinformation effectively
• Building trust with communities online and offline
• Equipping health professionals to address questions, concerns and health misinformation
• Assessing risk and mitigating harm from adverse health narratives in communities, health workforce and health system
These lecture slides, by Dr Sidra Arshad, offer a quick overview of the physiological basis of a normal electrocardiogram.
Learning objectives:
1. Define an electrocardiogram (ECG) and electrocardiography
2. Describe how dipoles generated by the heart produce the waveforms of the ECG
3. Describe the components of a normal electrocardiogram of a typical bipolar lead (limb II)
4. Differentiate between intervals and segments
5. Enlist some common indications for obtaining an ECG
6. Describe the flow of current around the heart during the cardiac cycle
7. Discuss the placement and polarity of the leads of electrocardiograph
8. Describe the normal electrocardiograms recorded from the limb leads and explain the physiological basis of the different records that are obtained
9. Define mean electrical vector (axis) of the heart and give the normal range
10. Define the mean QRS vector
11. Describe the axes of leads (hexagonal reference system)
12. Comprehend the vectorial analysis of the normal ECG
13. Determine the mean electrical axis of the ventricular QRS and appreciate the mean axis deviation
14. Explain the concepts of current of injury, J point, and their significance
Study Resources:
1. Chapter 11, Guyton and Hall Textbook of Medical Physiology, 14th edition
2. Chapter 9, Human Physiology - From Cells to Systems, Lauralee Sherwood, 9th edition
3. Chapter 29, Ganong’s Review of Medical Physiology, 26th edition
4. Electrocardiogram, StatPearls - https://www.ncbi.nlm.nih.gov/books/NBK549803/
5. ECG in Medical Practice by ABM Abdullah, 4th edition
6. Chapter 3, Cardiology Explained, https://www.ncbi.nlm.nih.gov/books/NBK2214/
7. ECG Basics, http://www.nataliescasebook.com/tag/e-c-g-basics
Rasamanikya is a excellent preparation in the field of Rasashastra, it is used in various Kushtha Roga, Shwasa, Vicharchika, Bhagandara, Vatarakta, and Phiranga Roga. In this article Preparation& Comparative analytical profile for both Formulationon i.e Rasamanikya prepared by Kushmanda swarasa & Churnodhaka Shodita Haratala. The study aims to provide insights into the comparative efficacy and analytical aspects of these formulations for enhanced therapeutic outcomes.
2. Safe Management of Healthcare Waste
• The ‘old’ document – Safe Disposal of Clinical Waste
has now been withdrawn.
• The consultation closed February 2006.
• Over 200 responses from organisations, professional
bodies and individuals.
• The Steering Group met at the beginning of March to
review the responses – over 2 days!
3. Key parts of SMHCW
•Infectious Waste
To follow WM2 – waste segregated as clinical waste on the basis of
infection risk
posed (even potential risk) is now hazardous waste.
•Medicinal Waste
To follow WM2 - cyto-toxic and cyto-static medicines defined as those with
the
following hazardous properties:
•H6 – toxic ;
•H7 – carcinogenic;
•H10 – toxic for reproduction;
•H11 – mutagenic;
are hazardous waste.
4. Safe Management of Healthcare Waste
Continued…
•Offensive Waste
Not a hazardous waste, not defined by regulation.
Waste which requires
specialist handling and disposal due to offensive
nature.
•Colour Coding
Virtually unanimous agreement that this was the way
forward – yet to agree the
colours for medicinal wastes.
5. Colour coding
The following colours have been agreed:
Purple & yellow for cyto toxic and cyto static
Yellow for wastes which require (at minimum)
disposal by incineration.
Orange for waste which require (at minimum)
treatment at suitably authorised facilities.
‘Tiger’ bags for offensive waste.
Blue or green ??? Pharmacy waste
6. Best Practice Colour Coding
Colour Description
Infectious Waste
Minimum treatment / disposal required is incineration in a suitably licensed or
permitted facility.
Infectious Waste
Minimum treatment / disposal required is to be ‘rendered safe’ in a suitably
licensed or permitted facility.
Cyto-toxic / Cyto-static Waste
Minimum treatment / disposal required is incineration in a suitably licensed or
permitted facility.
Offensive Waste*
Minimum treatment / disposal required is landfill in a suitably licensed or
permitted site. This waste should not be compacted in un-licensed/permitted
facilities.
Domestic Waste
Minimum treatment / disposal required is landfill in a suitably licensed or
permitted site.
Colour Coding …
8. Next steps
• Amendments will be made by the project
steering group with additional support from
other organisations.
• There will be a peer review process –
August 2006.
• Final publication September / October 2006
(fingers crossed).
9. Targets & Objectives
• Overall target to reduce the amount of waste
produced by 10% of the 2002/03 baseline by
2010
This is supported by 10 priority waste stream
targets.
10. Target 1: Hazardous Waste
• All healthcare organisations should review, with
immediate effect, the production of all hazardous
waste produced on-site and should produced a
hazardous waste inventory; and
• NHS Trusts should reduce the amount of hazardous
waste sent for disposal by 10% of the 2005/06 figure
over the next five years. This can be achieved by a
combination of:
• better separation at source;
• product substitution; and
• increased recycling/recovery where appropriate.
11. Target 2: Clinical Waste
NHS Trusts should reduce the amount of
clinical waste produced by 5% per annum.
If this year-on-year target is achieved by
2010,clinical waste producers will have made
a reduction in the amount of clinical waste
produced equivalent to approximately 20% of
the 2004/2005 arising figure.
12. Target 3: Hygiene Waste
• By 2007, healthcare organisations should
undertake a waste audit and review the
opportunities to segregate hygiene waste from the
clinical waste stream; and
• By 2008, every NHS Trust should have policies
and waste segregation protocols in place to
segregate hygiene waste from the clinical waste
stream
13. Target 4: Packaging Waste
• By 2007, all healthcare organisations should
undertake a waste audit and review the opportunities
to segregate packaging waste; and
• By 2010, every NHS Trust should segregate
packaging wastes and recover/recycle a minimum of
30%, by weight, of all packaging wastes collected.
14. Target 5: Biodegradable Waste
• By 2007, all healthcare organisations should have
reviewed the production of biodegradable waste on
site, including:
a) • plated meals;
b) • kitchen and canteen waste; and
c) • ground maintenance waste; and
• By 2010, every NHS Trust should have in place
arrangements to divert a minimum of 25%, by
weight, of the total biodegradable waste from landfill
to alternative waste management facilities .
15. Target 6: Construction and Demolition
Waste
• By 2007, all major capital projects resulting in the production of
C&D waste should require contractors to produce site waste
management plans, in accordance with the DTI Voluntary Code
of Practice;
• By 2010, all major capital projects, including new builds and
site modifications, should require a minimum of 85% recovery of
uncontaminated demolition materials by weight; and
• By 2010, all major capital projects, including new builds and
site modifications, should require that building materials contain a
minimum of 15% (by value) of recycled/recovered material. .
16. Target 7: Waste Electrical and
Electronic Equipment (WEEE)
• By 2006, all healthcare organisations should
have reviewed the electrical and electronic waste
they produce and investigate facilities to recover or
recycle WEEE; and
• By 2010, all NHS Trusts should recover/recycle
65% of all WEEE produced.
17. Target 8: End of Life Vehicles (ELV)
· From 2006, all healthcare organisations
should have arrangements in place for all
ELVs to be sent to authorised dismantlers to
be de-polluted and for material recovery.
18. Target 9: Battery Waste
· By 2007, Health Supplies Organisations
should establish a framework contract for
disposal/recycling of waste batteries.
19. Target 10: Waste Oils
· By 2007, NHS Trusts should have reviewed
the systems in place to manage waste oils.
20. Hazardous Waste Regulations
July 2005
Define Pharmaceutical waste as hazardous using model from ‘NIOSH
ALERT – Preventing Occupational Exposures to Antineoplastic and Other
Hazardous Drugs in Health Care Settings’
• Carcinogenicity
• Teratogenicity
• Reproductive Toxicity
• Organ Toxicity at low doses
• Genotoxicity
• Structure and Profiles of new drugs that mimic existing
drugs determined hazardous as above
21. Hazardous Waste
New Hazardous Waste Regulations may render drugs
with significant hazardous properties as non-hazardous
Special Waste is NOT a category – This removed
anomaly that all POM’s are Special Waste, eg Water for
Injection; 100 Paracetamol Tablets Vs 3 x 32
Paracetamol Tablets
Public Health Interest Vs Environmental View
Pillferable Value Vs Environmental View
WESTERN MAIL TEST!
22. Proposed Definitions
(A) Cytotoxic and Cytostatic Drugs must be
incinerated
EWC Codes - use 18 01 08, 18 02 07*, 20 01 1*
(B) Medicines other than Cytotoxic and Cytostatic
Drugs should be disposed of as follows
EWC Codes - use 18 01 09, 18 02 08 and 20 01 32
(i) those with hazardous properties should be incinerated
(ii) antimicrobial drugs should be incinerated
(iii) genetherapy drugs should be incinerated
(iv) denatured controlled Drugs should be incinerated
23. Proposed Definitions cont’d………
(v) liquid drugs (other than (i), (ii) and (iii) ) may be disposed of
in the foul sewer in accordance with appropriate consents or
incinerated (see (v))
(vi) certain Intravenous fluids and benign liquid substances may
be disposed of at any suitably authorised facility or discharged
to foul sewer. (obviously needs a clearly defined list or criteria)
(vii) articles - medicines in pressurised containers (e.g. ventolin)
- these should be incinerated ?
prefilled syringes
- these should be incinerated ?
medicated dressings
- these should be incinerated where they have
hazardous properties
Other article types ???
24. Proposed Definitions cont’d……….
(viii) containers of mixed waste medicines should be incinerated
where the individual pharmaceuticals present have not been
identified and individually assessed against the above criteria.
Clinical Trial Materials?
(ix) non-liquid GSL or P Pharmaceuticals other than those listed
above may be disposed of at a suitably authorised landfill or
incinerated. For landfill these should be deep buried in a
dedicated area at the working face and covered immediately by
no less than 2 m of other refuse. A recommended limit of 1% of
the total capacity of the cell, and an input of no more than 2% of
the input waste per month
(x) substances other than those identified should be incinerated
25. Proposed Definitions cont’d………..
(C) Waste from pharmaceutical manufacture
(i) For medicinal products, including those which are out of
date, out of specification, or unfinished - use
(A) and (B) above
EWC codes - see (A) and (B)
(ii) Pharmaceutically active substances associated with the
manufacture of Cytotoxic and
Cytostatic drugs,
antimicrobial drugs, controlled drugs and gene therapy
drugs should be incinerated.
EWC codes - 17 05 13*, 07 05 14, 07 05 99
(iii) For process wastes other than (i) and (ii) disposal at
26. No Liquid Waste on Landfill Sites
January 2007
Positive list of drugs for disposal into foul sewer needed
They must not be damaging to fauna or flora,
for example antacids, bulk i/v fluids
27. Segregation
Article 2(4) of the Hazardous Waste Directive specifically
requires the separation- where technically and
economically feasible- of hazardous waste that has been
mixed with non hazardous waste or with other categories
of hazardous waste where it is necessary for the
protection of the environment or to avoid harm to human
health
Requires extension of hospital ‘cytotoxic’ separation
system
Label medicine at point of issue category of disposal
route
28. Segregation cont’d……….
Failure to separate appropriately will be a prosecutable offence. All
yellow bags will be classed at Hazardous Waste from July 2007. If
contents not segregated (eg flowers have been put in bags) an
offence will have been committed
Receiving Trust should be licensed for returns of waste/out dated
stock from eg satellite hospitals
Denaturing Controlled Drugs and De-blistering is Low Risk
treatment and a Waste Treatment Licence is NOT required
Sharps/needle containers do not comply with regulations as they
leak liquids
29. Additional Factors in the Community
Household waste will be classified as domestic waste.
Residential homes are not be able to dispose of
medical/clinical waste
Needle and Syringe exchange schemes through
Community Pharmacies require the Pharmacy to have a
licence. Therefore most schemes through Pharmacies
are illegal. GP Surgeries do not require these licences
31. Why dispose of waste medicines?
Helps prevent accidental poisonings
Helps prevent inappropriate use of medicines
e.g. diversion to other people
Helps protect the environment
32. Controlled waste regulations 1992
Clinical waste from:
– Domestic premises is “household waste”
– Residential homes is “household waste”
– Hospice (charity) is “household waste”
– Hospice (Care Home, Nursing) is “industrial waste”
– Care Home (Nursing) is “industrial waste”
– Prisons is “industrial waste”
GP surgeries are not household premises, so can’t
return waste to pharmacies
33. Carriage of waste
Not covered by conditional exemption
Must register with the EA as a waste carrier
Registration is valid for 3 years (£136 in June
2005; renewal costs £91)
Applies to waste medicines collected from
patient's home or a residential home
Not part of Essential Service 3
34. Waste Management Licence
To store waste, pending collection, I need:
– Waste Management Licence; or
– Conditional Exemption registered with the EA
(currently no charge). There is a qualifying
limitation of less than 200Kg per annum
– Environment Agency Guidance on Low Risk
Waste Activities – Version 13 Sept 2006
NOT REQUIRED
35. Waste treatment
De-blistering and emptying of bottles is
regarded as waste treatment (a licensable
activity) – LRW NOT IN PUBLIC INTEREST
Non-CDs: remove blister packaging from
inert cartons and leaflets
MDS trays: remove inner disposable
packaging and re-use plastic shell
CDs: de-blister and denature
36. Segregation (1)
The NHS (Pharmaceutical Services)
Regulations 2005
– Aerosols
– Liquids
– Solids
Depends on the requirements of the LHB
and/or waste contractor who must supply
adequate containers
37. Segregation (2)
The Hazardous Waste Regs 2005 prohibit
the mixing of:
– different types of hazardous waste
– hazardous and non hazardous waste
Pharmacies will require at least 2 containers
– for cytotoxic/cytostatic medicines
– for non hazardous medicines
Duty of care to determine and code waste
38. Segregation (3)
Will you exceed 200kg of hazardous waste?
If yes, notify EA
Revise SOPs for handling waste
Ensure appropriate containers are provided
Identify segregation area in pharmacy
Assess need for protective equipment e.g.
gloves, overalls, spillage kits
39. Disposal of obsolete dispensing stock
Yes (for stock held to fill NHS scripts)
Via LHB funded collection scheme
No requirement to segregate stock from
returned household waste
But need to describe waste using the
different EWC codes (18… or 20…)
Ref: Essential Service Spec. 3.1.6
40. Controlled Drugs (CDs)
All CDs must be stored in a complying cabinet
No exemption for “waste” CDs
Therefore “waste” CDs must be denatured before
mixing with other waste
EA does not require a waste management licence to
denature CDs
Denaturing “resin mixture” kits should be used
(purchased by pharmacy)
Authorised witness?
41. Sharps
LAs have a duty to arrange collections on the
request of a patient
Needle exchange schemes – para 28 of WML
permits waste to be returned to the pharmacy
(Enhanced Service)
EA allows other sharps waste to be returned to a
pharmacy, without a licence, to avoid pollution or
harm to health (but not part of essential service 3)
Staff should be offered Hep B immunisation
42. Consignment and transfer notes
Hazardous waste: a consignment note must
be completed and a copy retained in the
pharmacy for 3 years:
– Waste must be listed and quantified (Kg)
– Waste must be coded e.g. 18 01 08 9 (cytotoxics)
Non hazardous waste: a duty of care transfer
note must be completed which can cover a
series of transfers; retained for 2 years
43. Care Homes (Nursing)
Waste is classified as “industrial” waste
Not covered by pharmacy exemption
Pharmacists collecting this waste require:
– a waste management licence (high cost)
– to register as a carrier of waste
Also applies to dual registered homes and
hospices without charitable status providing
nursing care
44. Conflicting advice?
Sometimes local EA advice can conflict with
other guidance e.g. PSNC
In these cases, the matter should be referred
to the National Technical Officer (EA) and to
the national EA/PSNC agreement
45. Additional resources/reading
PSNC: Pharmacy Contractor Briefing on Waste (
www.psnc.org.uk)
RPSGB: The Hazardous Waste Regulations
(England and Wales) 2005: Interim guidance for
community pharmacists Dec 2005, and for hospital
pharmacists July 2005) (www.rpsgb.org.uk)
NPA Information leaflet: Waste Disposal (
www.npa.co.uk)
Environment Agency:
www.environment-agency.gov.uk
46. Revision to Safe Disposal of Clinical
Waste
Wendy Rayner, Enviros
Consulting Ltd.
47. In summary……
Why re-write the guidance ?
Steering Group – Changes in UK Regulation & Guidance
Hazardous Waste
Classification of Infectious Waste - Current & Forthcoming
Classification of Medicinal Wastes - Current & Forthcoming
Waste Audit, Packaging & Labelling
Best Practice Colour Coding
Guide to Waste Management Licences & Applicable Exemptions
Consultation Process
Content of new guidance subject to change following final
Steering Group Approval
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Looking forward to franchise, collaboration,
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49. This platform has been started by
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We need lots of funds manpower etc. to
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cause.
Discuss why – ensure effective disposal and treatment
Transferable system from one Trust to another.
Brief presentation to focus on:
Why the guidance has been amended
The management of the project and guidance provided by the project Steering group headed up by NHS Estates
Look at selected issue, including (and primarily focusing on):
Classification of infectious wastes
Look at current definitions from waste and carriage regulation.
Discuss the approach of the new guidance document – production of a unified definition which complies with waste and carriage regulation
Classification of medicinal wastes
Look at current definitions in special waste regulations – POM
Look at EWC entries
Discuss new approach – based on hazardous properties
Selected contents of the guidance including…auditing, packaging and labelling
Summary of best practice colour coding scheme – based on practical waste management segregation – based on disposal. Providing clear, easy to understand and transferable system benefiting producers and the waste industry.
Finally, a simplistic guide to waste management licensing and exemptions.
Consultation process