CERTIFIED RELIABILITY ENGINEER

The Certified Reliability Engineer Course is intended for specialists who understand the principles of performance evaluation and prediction to improve the safety and maintainability of goods and systems. This Body of Knowledge (BOK) and applied technologies cover design review and control, projection, estimation, and apportionment methodologies, failure mode effects and analysis, reliability testing and field failures, including mathematical modelling, comprehension of human factors in reliability, and the ability to create and manage reliability information systems for failure analysis, design, and performance.

Any organisation need qualified personnel to keep its equipment operational. Each design has a different life expectancy and failure rate, whether an IT system, a building’s infrastructure, or operating equipment. The Certified Reliability Engineer (CRE) is an expert who can evaluate what it takes to keep such equipment functioning consistently and safely while remaining cost-effective. The CRE course gives you the foundational information and understanding of equipment failure mechanisms and life cycles that you need to maximise equipment uptime while often saving money. ASQ accreditation reflects a globally recognised degree of professionalism.

CERTIFIED RELIABILITY ENGINEER COURSE LEARNING OUTCOME

The following are the minimal requirements for a Certified Reliability Engineer:

• Will comprehend the strategic management components of reliability engineering, including its relationship to safety and quality, the influence on warranty programmes and customer satisfaction, the repercussions of failure, and the potential for guilt. 
• Will comprehend and must connect requirements planning for dependability programmes and how multiple technical and operational systems meet overall programme goals and align with organisational goals. Will analyse product and system safety issues using risk analysis tools and techniques.
• Will assess the product lifecycle using probability and statistical tools, conduct hypothesis testing, comprehend appropriate statistical models, tolerance and confidence intervals, sample size determination, and regression analysis.
• Product and process reliability requirements will be developed utilising reliability and design techniques such as failure mode effects analysis (FMEA), fault tolerance, optimisation, and design of experiments (DOE). 
• Models will be developed to investigate and predict reliability performance using block diagrams, physics of failure, apportionment, dynamic reliability, and simulations.
• Create reliability test plans that reflect the anticipated use environment and operational conditions. Will choose, evaluate, and interpret the findings of various test methodologies used during product development and testing.
• Will apply maintainability and availability principles across the product, process, or system lifecycle, as well as identify and support relevant testability methodologies and maintenance operations
• Will find, collect, analyse, and manage various forms of data to reduce failures and improve performance and will assist reliability through failure analysis, FRACAS, and other types of root cause analysis.

PERSONAL IMPACT

• Increase product usable lifetime, minimise time to market and improve service.
• Lower equipment downtime, life-cycle costs, and failure and warranty costs
• Identify and address failure causes before they occur.
• Increase safety by lowering risks.
• Individuals will gain from being able to apply the concepts and procedures to identify, evaluate, and improve workplace concerns.
• Engaging colleagues more successfully during team-based problem-solving
• Understanding essential phrases in the language of business development
• enhancing their professional abilities and critical thinking, Using structured, disciplined techniques to solve difficulties Making business decisions based on data

ORGANIZATIONAL IMPACT

• Increase the usable lifetime of products, reduce time to market, and improve service through engineering.
• Lower equipment downtime, life-cycle costs, and failure and warranty costs.
• Identify and address failure causes before they occur.
• Improve customer satisfaction by reducing unit failures.
• Increase safety by lowering risks.
• Maintain dependability as new materials, processes, and complex systems rapidly evolve.