Abstract:In
this paper, we discuss a novel approach to chemical storage
based on the physical properties of the chemicals (reactivity, solid
or liquid, and volume) and the intrinsic hazards associated with a
chemical as identified by the hazard statements. These are indicated
on a substance’s safety data sheet (SDS), for example, oxidizing,
flammability, toxicity, and compatibility with other chemicals. We
introduce a flowchart to identify appropriate storage locations for
each chemical in the laboratory and describe w… Show more
“…These shared practices, while differing in specifics, form the bedrock of a safety-first culture in both academic and industrial laboratories. 109,139,227 The differences between academic and industrial laboratories, as detailed in Table 12, shed light on the tailored approaches each type of lab adopts to address its unique safety challenges. The varied and exploratory nature of work in academic laboratories necessitates a more adaptable and project-specific approach to safety, contrasting with the standardized, processdriven protocols in industrial laboratories.…”
Section: Comparative Analysis Of Safety Principles In Academic and In...mentioning
confidence: 99%
“…By respecting established procedures for the storage and management of chemicals, laboratories can effectively mitigate the inherent risks associated with hazardous substances. This will enhance laboratory safety and ensure the well-being of laboratory staff, the local community, and the environment. − Consistent training initiatives and awareness campaigns can serve to reinforce these safety measures and promote safety-oriented ethics within the laboratory, wherein laboratory personnel actively participate to uphold a secure working environment. − …”
Section: Chemical Storage and Handlingmentioning
confidence: 99%
“…Furthermore, the implementation of risk assessment protocols, emergency procedures, and the use of personal protective equipment (PPE) are indicative of a proactive approach to safety management. These shared practices, while differing in specifics, form the bedrock of a safety-first culture in both academic and industrial laboratories. ,, …”
Section: Comparative Analysis Of Safety Principles In
Academic and In...mentioning
This review paper presents an analysis of safety practices in chemical laboratories. It encompasses a systematic exploration of various facets including risk assessment, hazard mitigation, and the implementation of safety protocols. Emphasis is placed on the critical role of continuous education and training, advocating a proactive safety culture, and adapting to technological advancements. Additionally, the paper underscores the importance of adhering to regulatory standards, promoting exceeding baseline compliance toward establishing best practices in laboratory safety. This comprehensive approach highlights the dynamic, multifaceted nature of laboratory safety, positioning it as a fundamental aspect of scientific research.
“…These shared practices, while differing in specifics, form the bedrock of a safety-first culture in both academic and industrial laboratories. 109,139,227 The differences between academic and industrial laboratories, as detailed in Table 12, shed light on the tailored approaches each type of lab adopts to address its unique safety challenges. The varied and exploratory nature of work in academic laboratories necessitates a more adaptable and project-specific approach to safety, contrasting with the standardized, processdriven protocols in industrial laboratories.…”
Section: Comparative Analysis Of Safety Principles In Academic and In...mentioning
confidence: 99%
“…By respecting established procedures for the storage and management of chemicals, laboratories can effectively mitigate the inherent risks associated with hazardous substances. This will enhance laboratory safety and ensure the well-being of laboratory staff, the local community, and the environment. − Consistent training initiatives and awareness campaigns can serve to reinforce these safety measures and promote safety-oriented ethics within the laboratory, wherein laboratory personnel actively participate to uphold a secure working environment. − …”
Section: Chemical Storage and Handlingmentioning
confidence: 99%
“…Furthermore, the implementation of risk assessment protocols, emergency procedures, and the use of personal protective equipment (PPE) are indicative of a proactive approach to safety management. These shared practices, while differing in specifics, form the bedrock of a safety-first culture in both academic and industrial laboratories. ,, …”
Section: Comparative Analysis Of Safety Principles In
Academic and In...mentioning
This review paper presents an analysis of safety practices in chemical laboratories. It encompasses a systematic exploration of various facets including risk assessment, hazard mitigation, and the implementation of safety protocols. Emphasis is placed on the critical role of continuous education and training, advocating a proactive safety culture, and adapting to technological advancements. Additionally, the paper underscores the importance of adhering to regulatory standards, promoting exceeding baseline compliance toward establishing best practices in laboratory safety. This comprehensive approach highlights the dynamic, multifaceted nature of laboratory safety, positioning it as a fundamental aspect of scientific research.
“…Lastly, inventory accountability and management are difficult to maintain, as shown in a recent study of chemical storage at research laboratories . For hazardous material users, maintaining accurate inventory counts, SDS-inventory associations, proper material segregation, and usage logs can prove an arduous task provided that for many users these are side compliance tasks to their primary duties; often what the materials are being used for.…”
Section: Introductionmentioning
confidence: 99%
“…Lastly, inventory accountability and management are difficult to maintain, as shown in a recent study of chemical storage at research laboratories. 16 For hazardous material users, maintaining accurate inventory counts, SDS-inventory associations, proper material segregation, and usage logs can prove an arduous task provided that for many users these are side compliance tasks to their primary duties; often what the materials are being used for. While many of the proposed applications in this paper are not inherently novel, the applications of these in industry, individually and as part of a more robust, integrated system, remain uncommon and their use could help improve or resolve many of the more common EHS violations.…”
In the United States alone, approximately 2 billion tons
of hazardous
material products are manufactured each year for both household and
industrial applications and contribute to thousands of worker chemical
exposures with as many as 50,000 deaths from prolonged exposure each
year. The potential hazards and impacts of these chemicals for human
health and the environment are primarily communicated to the public
through Safety Data Sheets (SDSs) from the chemical vendors or distributors.
These documents provide a standardized approach for how and what information
is provided to product users to assist them with assessment of precautionary
measures, hazard mitigation, emergency response or cleanup procedures,
and environmental, health, and safety (EHS) management. Despite the
criticality for hazard communication (HAZCOM) precision, legacy SDS
management and industry business practices leave the overall ability
to effectively manage chemicals vulnerable to significant liability
through a lack of full constituent disclosure, injection of data quality
errors through various handling of SDS information and manual data
entry, and the lack of direct SDS-to-product association. Chemical
spills and accidents often require individuals to look for the appropriate
SDS on a local computer, online, or in workplace binders; each of
which results in information returned that is often found to be outdated
or incorrect. Workplace HAZCOM violations remain among the top citations
during EHS inspections by regulatory agencies. More important, however,
is the lack of precise association of SDS to hazardous products that
can occur through chemical management lifecycles. Incorrect SDSs can
yield significant liability, as subsequent environmental and occupational
health analyses and reporting are based upon incorrect and, in some
cases, entirely different chemical formulations. This paper focuses
on the need for a paradigm shift in our chemical management systems
and how a standardized management system and various recent technological
advances can be incorporated into Environmental Management System
operations to reduce or eliminate these liabilities. The following
advancements can be used to enhance the lifecycle management of workplace
chemicals, reduce potential exposure and spill risks, reduce workplace
hazards, and increase the efficiency and accuracy of environmental
reporting through a more streamlined systems approach. EHS system
enhancement applications discussed in this paper include the following:
the need for a centralized universal SDS repository with full chemical
disclosure of all product constituents and a nationally adopted machine
language SDS standard. The use of artificial intelligence/machine
learning in environmental systems and how they can be used as a medium
to transition toward an automated standard by reverse-engineering
and partitioning SDS components into machine-encoded text that can
be validated and uploaded to a centralized repository. Algorithmic
and meta-algorithmic approaches to SDS requirement and data...
scite is a Brooklyn-based organization that helps researchers better discover and understand research articles through Smart Citations–citations that display the context of the citation and describe whether the article provides supporting or contrasting evidence. scite is used by students and researchers from around the world and is funded in part by the National Science Foundation and the National Institute on Drug Abuse of the National Institutes of Health.