Combustible Dust Testing

Laboratory testing to quantify dust explosion & reactivity hazards

Flammable Gas & Vapor Testing

Laboratory testing to quantify explosion hazards for vapor and gas mixtures

Chemical Reactivity Testing

Laboratory testing to quantify reactive chemical hazards, including the possibility of material incompatibility, instability, and runaway chemical reactions

DIERS Methodology

Design emergency pressure relief systems to mitigate the consequences of unwanted chemical reactivity and account for two-phase flow using the right tools and methods

Deflagrations (Dust/Vapor/Gas)

Properly size pressure relief vents to protect your processes from dust, vapor, and gas explosions

Effluent Handling

Pressure relief sizing is just the first step and it is critical to safety handle the effluent discharge from an overpressure event

Thermal Stability

Safe storage or processing requires an understanding of the possible hazards associated with sensitivity to variations in temperature

UN-DOT

Classification of hazardous materials subject to shipping and storage regulations

Safety Data Sheets

Develop critical safety data for inclusion in SDS documents

Biological

Model transport of airborne virus aerosols to guide safe operations and ventilation upgrades

Radioactive

Model transport of contamination for source term and leak path factor analysis

Fire Analysis

Model transport of heat and smoke for fire analysis

Flammable or Toxic Gas

transport of flammable or toxic gas during a process upset

OSS consulting, adiabatic & reaction calorimetry and consulting

Onsite safety studies can help identify explosibility and chemical reaction hazards so that appropriate testing, simulations, or calculations are identified to support safe scale up

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Engineering and testing to support safe plant operations and develop solutions to problems in heat transfer, fluid flow, electric power systems

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Testing to support safe design of batteries and electrical power backup facilities particularly to satisfy UL9540a ed.4

Hydrogen Safety

Testing and consulting on the explosion risks associated with devices and processes which use or produce hydrogen

Spent Fuel

Safety analysis for packaging, transport, and storage of spent nuclear fuel

Decommissioning, Decontamination and Remediation (DD&R)

Safety analysis to underpin decommissioning process at facilities which have produced or used radioactive nuclear materials

Laboratory Testing & Software Capabilities

Bespoke testing and modeling services to validate analysis of DD&R processes

Nuclear Overview

Our Nuclear Services Group is recognized for comprehensive evaluations to help commercial nuclear power plants operate efficiently and stay compliant.

Severe Accident Analysis and Risk Assessment

Expert analysis of possible risk and consequences from nuclear plant accidents

Thermal Hydraulics

Testing and analysis to ensure that critical equipment will operate under adverse environmental conditions

Environmental Qualification (EQ) and Equipment Survivability (ES)

Testing and analysis to ensure that critical equipment will operate under adverse environmental conditions

Laboratory Testing & Software Capabilities

Testing and modeling services to support resolution of emergent safety issues at a power plant

Adiabatic safety calorimeters (ARSST and VSP2)

Low thermal inertial adiabatic calorimeters specially designed to provide directly scalable data that are critical to safe process design

Other Lab Equipment (DSC/ARC supplies, CPA, C80, Super Stirrer)

Products and equipment for the process safety or process development laboratory

FERST

Software for emergency relief system design to ensure safe processing of reactive chemicals, including consideration of two-phase flow and runaway chemical reactions

FATE

Facility modeling software mechanistically tracks transport of heat, gasses, vapors, and aerosols for safety analysis of multi-room facilities

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Recent Posts

Cost Benefit Analysis of Nuclear Power Plants

Posted by The Fauske Team on 05.11.17

According to the Nuclear Energy Institute (NEI): "The nuclear energy industry plays an important role in job creation and economic growth, providing both near-term and lasting employment and economic benefits. The nearly 100 reactors in the United States generate substantial domestic economic value in electricity sales and revenue—$40 billion to $50 billion each year—with more than 100,000 workers contributing to that production.

NEI has conducted economic benefits studies analyzing more Nuclear plant safety testingthan half of the nuclear energy facilities in the country. The studies show that the typical nuclear plant generates approximately $470 million in sales of goods and services in the local community and nearly $40 million in total labor income. These figures include both direct and secondary effects. The direct effects reflect the plant’s expenditures for goods, services, labor and profit—approximately $453 million. The secondary effects at the local level—approximately $17 million—include indirect and induced spending attributable to the presence of the plant and its employees as plant expenditures filter through the local economy (e.g., restaurants and shops buying goods and hiring employees). Extended to the state and national economies, secondary impacts increase by $80 million and $393 million, respectively. 

Every dollar spent by the industry at a nuclear facility results in the creation of $1.04 in the local community, $1.18 at the state level and $1.87 at the national level. Each plant generates almost $16 million in state and local tax revenue annually. These tax dollars benefit schools, roads, and other state and local infrastructure. The average nuclear plant generates federal tax payments of approximately $67 million annually.

See NEI’s paper on Nuclear Energy’s Economic Benefits – Current and Future for a detailed summary of the economic benefits studies. Also see Report: Nuclear Energy Essential to Illinois Economy, Environment and NEI Study: Davis-Besse Plant Generates $1.1 Billion Per Year for Ohio.

Maintaining America’s Energy Diversity

Diverse energy sources enable the United States to balance the cost of electricity production, availability and environmental impacts to our best advantage. Coal, natural gas and nuclear energy are the foundation of the nation’s electricity supply system. Coal produces 38.7 percent of the country’s electricity, natural gas provides 27.4 percent and nuclear provides 19.5 percent. The rest comes from hydroelectric dams and renewable energy. Each source of electricity has unique advantages and disadvantages, and each has its place in a balanced electricity supply portfolio.

Natural gas-fired electricity generation has more than doubled since 1990 to 30 percent of all production. Natural gas fuels nearly all power plants built over the past 15 years. However, natural gas is subject to significant price fluctuations. The greater the country’s reliance on natural gas, the greater the likelihood that electricity prices will experience increased volatility in the future.

The polar vortex uncovered some significant vulnerabilities in the electric supply system.  In PJM, during the extreme cold in early January 2014, a little over 40,000 megawatts – 22 percent of PJM’s installed capacity – was forced out of service because coal piles and coal-handling equipment froze, gas wells froze at the wellhead, fuel oil deliveries and barge traffic were interrupted, or gas-fired plants simply could not purchase natural gas at any price.  In MISO, approximately 33,000 megawatts of capacity was forced out of service, one-quarter of which was gas-fired capacity.  Nuclear power plants had average capacity factors in the mid-90 percent range.  Fuel and technology diversity is the bedrock of a reliable, resilient system, and premature shutdown of nuclear units would compromise that value.

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Uranium fuel for U.S. nuclear power plants is abundant and readily available from stable allies, such as Canada and Australia. The long-term stability of fuel cost, coupled with industry success over the past 15 years in reducing operating costs, makes America’s reactors among the lowest-cost sources of electricity available."

World-nuclear.org Nuclear Power Economics and Project Structuring 2017 Edition states:

Download full report pdf

"Nuclear power is an economic source of electricity generation, combining the advantages of security, reliability, virtually zero greenhouse gas emissions and cost competitiveness. Existing plants function well with a high degree of predictability. The operating costs of these plants are usually very competitive, with a low risk of significant operating cost inflation. The capacity factors of existing plants are high (over 90% in the US). Nuclear power plants provide electricity when it is needed. Plants are now expected to operate for 60 years and even longer in future.

Nuclear Plant The International Energy Agency (IEA) sees the global demand for electricity growing at 1.9% per year in the period to 2040. Given this demand environment, coupled with the desire to reduce the greenhouse gas emissions from the generation of electricity, the IEA projects growth of an annualised 2.3% in nuclear generation over that period.

Nuclear competes well with rival generation technologies as is indicated by the assessment of the Organisation for Economic Cooperation and Development (OECD) - Nuclear Energy Agency (NEA) & IEA, although the level of competitiveness does vary at different discount rates and between countries. In the pivotal Chinese market, nuclear has a lower levelised cost of generating electricity (LCOE) than any other technology barring hydro.

In some electricity markets, especially those that are deregulated, subsidised intermittent renewable generation and gas-fired generation not penalised by carbon costs are creating economic difficulties for all baseload generators, including nuclear. Where the system and external costs of competitor technologies are added to the plant-level costs, the competitiveness of nuclear is enhanced. In order for these advantages of nuclear to be fully realised, policymakers need to address fundamental market design problems. In some countries, deregulated markets are being partially re-regulated in order to place monetary value on the qualities that nuclear power brings (reliability, security, zero emissions).

The economics of new nuclear plants are heavily influenced by their capital cost, which accounts for at least 60% of their levelised cost of electricity. Interest charges and the construction period are important variables for determining the overall cost of capital. The escalation of nuclear capital costs in some countries, more apparent than real given the paucity of new reactor construction in OECD countries and the introduction of new designs, has peaked in the opinion of the IEA3. In countries where continuous development programmes have been maintained, capital costs have been contained and, in the case of South Korea, even reduced. Over the last fifteen years global median construction periods have fallen. Once a nuclear plant has been constructed, the production cost of electricity is low and predictably stable."

What are the components of nuclear plant safety and maintenance? 

Decontamination & Decommissioning (D&D)/waste management, commercial grade dedication, reverse engineering/obsolescence, cable testing/aging, siesmic walkdowns, spent fuel processing, thermal hydraulics, severe accident management, probablistic risk assessment (PRA), MAAP/FateTM software coding, gas/air intrusion, nuclear plant analysis, fire modeling, verification and validation, Fukushima type engineering are few of the activities associated with nuclear safety, maintenance and shut down. 

For more information or to share discussion, please contact info@fauske.com, 630-323-8750. 

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Topics: nuclear plant, nuclear safety, nuclear relap

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