A proactive approach, coupled with properly planned and implemented safety and risk management systems can help you comply with local, state and federal PSM regulations, as well as minimize loss of life, environmental impact, equipment damage, citations and litigation.
ioMosaic pioneered many of the current risk assessment techniques for processes that handle hazardous chemicals.
Our experts support every aspect to ensure that your facility runs safely and efficiently.
Expertise to help you minimize your exposure to fire, injury, property damage, and litigation.
Integrating best practices with cost-effective solutions to address program deficiencies.
Helping manage risk with facility siting studies, assessments and recommendations.
Senior knowledgeable engineers facilitate PHAs or DHAs in nearly all sectors of the process and processing industries.
Decades of experience leading incident investigations for process industry companies.
We prepare expert opinion reports and provide expert testimony for process incident cases.
Experienced engineers who have performed LOPAs on a wide range of facilities and terminals.
Our experts are at the forefront of pipeline Process Safety Management proficiency.
Proven track record of performing QRAs for facilities, pipelines and transportation routes.
Well versed in assisting global companies with their sustainability reporting communications.
Decades of experience mitigating hazards for the chemical and pharmaceutical industries.
The chemical company of a large integrated energy company was developing a corporate standard for LOPA, which incorporated a risk ranking matrix. The company was interested in obtaining an independent review of the design of the risk matrix, and in benchmarking the underlying risk tolerability criteria with generally accepted industry norms.
A major pulp and paper manufacturing company in Mississippi determined that its process safety management (PSM) program had to do more than merely follow OSHA regulations; they wanted it to also be effective in preventing accidents.
If your facility uses, stores, manufactures, handles, or moves flammable or highly hazardous chemicals on site above the threshold quantity (TQ), OSHA does require PSM implementation. Learn the facts about process safety management.
Despite their benefits, biogas facilities face significant safety challenges. Over 160 accidents have been documented from 1995 to 2014, primarily involving fires, explosions, and the release of hazardous gases. Read this white paper to understand the consequences of a loss of containment incident for a biogas tank and see examples of process safety modeling.
A detailed risk-based approach is proposed for addressing flammable and toxic dispersions impacting occupied buildings. The approach is based on the results from a complete quantitative risk-based assessment (QRA), which provides the following information per each outcome impacting the target location under analysis: (1) individual frequency of occurrence; (2) outdoor concentration; (3) exposure time; and (4) indoor concentrations by considering building air infiltration. Exceedance curves per hazard type (flammability or toxicity) and per chemical can be generated, which allow the user to decide whether a target building should be introduced in the mitigation plan as per API Recommended Practice 752 and API Recommended Practice 753, or if the target location can be within the acceptable risk region. Additionally, the proposed approach allows the construction of dedicated FN curves per location being impacted by toxic dispersions. The results from the proposed approach allow decision-makers to decide if there is the need to install the most cost-effective risk reduction measures based on the identified target locations to be in an unacceptable risk region.
This manuscript focuses on the impact of Loss of Containment scenarios (LOCs) of hazardous materials that could lead to flammable and toxic dispersions to portable and fixed buildings. The outcomes are based on the source term models which consider released material properties and behavior, conditions of the release and various phenomena that accompany the release of hazardous materials under such conditions (e.g., expansion, choked flow, two-phase flow, aerosolization, rainout, etc.) [1]. These models are important because they provide input data to the dispersion models and the accuracy from these models is dependent upon the accuracy in the source term computation. Detailed information on the mathematical source term and dispersion models can be found in reference [2]. During the development of the quantitative risk-based assessment, it is critical to properly locate all structures/buildings present in a process facility [3]. Accordingly, all identified LOCs [4] are analyzed and modeled following criteria established in references [5], [6], [7], [8] and [9]. Note that these cited references provide the knowledge for quantitative risk-based assessment development, which is the basis of the proposed approach [9]. In this manuscript, a risk-based approach is focused on identifying which occupied buildings in a process facility could be impacted by hazardous dispersions due to toxic and flammable releases is defined and characterized.
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