Reliability-Centered Maintenance (RCM),

22-23 Dec, 2008 - Kuala Lumpur, MALAYSIA

JW Marriott Hotel

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Course Highlights
• RCM A Maintenance Discipline
• The Nature Of Failure
• The Four Basic Maintenance Tasks
• Developing The Initial Programme
• Evolution Of The RCM Programme
• Applying RCM Theory To Machines
• RCM Analysis Of Systems
• RCM Analysis Of A Plant
• RCM Analysis Of Structures
• Completing The Maintenance Programme
• The Use Of Operating Information
• The Role Of Scheduled Maintenance


INTRODUCTION
Reliability-centered maintenance (RCM) is based on the following precepts:
• A failure is an unsatisfactory condition. There are two types of failures: functional failures, usually reported by operating engineering staff, and potential failures, usually discovered by maintenance engineering staff.
• The consequences of a functional failure determines the priority of maintenance effort. These consequences fall into four categories:
- Safety consequences, involving possible loss of the equipment and its occupants
- Operational consequences, which involve an indirect economic loss as well as the direct cost of repair
- Nonoperational consequences, which involve only the direct cost of repair
- Hidden-failure consequences, which involve exposure to a possible multiple failure as a result of the undetected failure of a hidden function


A reliability-centered maintenance program includes only those tasks which satisfy the criteria for both applicability and effectiveness. The applicability of a task is determined by the characteristics of the item, and its effectiveness is defined in terms of the consequences the task is designed to prevent.
• There are four basic types of tasks that engineers can perform, each of which is applicable under a unique set of conditions. The first three tasks are directed at preventing functional failures of the items to which they are assigned and the fourth is directed at preventing a multiple failure involving that item:
- On-condition inspections of an item to find and correct any potential failures
- Rework (overhaul) of an item at or before some specified age limit
- Discard of an item (or one of its parts) at or before some specified life limit
- Failure-finding inspections of a hidden-function item to find and correct functional failures that have already occurred but were not evident to the operating engineering staff.


The RCM decision diagram provides a logical tool for determining which scheduled tasks are either necessary or desirable to protect the safety and operating capability of the equipment.
• The resulting set of RCM tasks is based on the following considerations:
- The consequences of each type of functional failure
- The visibility of a functional failure to the operating crew (evidence that a failure has occurred)
- The visibility of reduced resistance to failure (evidence that a failure is imminent)
- The age-reliability characteristics of each item
- The economic tradeoff between the cost of scheduled maintenance and the benefits to be derived from it

• A multiple failure, resulting from a sequence of independent failures, may have consequences that would not be caused by any one of the individual failures alone. These consequences are taken into account in the definition of the failure consequences for the first failure.

• A defauIt strategy governs decision making in the absence of full information or agreement. This strategy provides for conservative initial decisions, to be revised on the basis of information derived from operating experience.


AFTER ATTENDING THIS COURSE, YOU WILL RETURN TO YOUR JOB...

1.Developing a working knowledge of RCM systems.
2.Differentiating between the different classes of maintenance.
3.Understanding better the design, construction, operations and maintenance requirements of  equipment and systems.
4.Implementing strategies and methodologies to create an effective maintenance programme.
5.Increasing your knowledge and skills to identify and address operational problems at all levels.
6.Implementing mechanisms to measure equipment performance at all levels.
7.Analysing and understanding the impact of RCM on the maintenance strategy.
8.Developing and implementing an effective maintenance budget.
9.Using life cycle costing techniques to deliver best practice maintenance.
10.Implementing maintenance plans that are cost effective and aligned to the organisation’s strategic goals.
11.Improving performance by developing detailed specifications with service partners.
12.Establishing an effective maintenance team.


WHO SHOULD ATTEND
Facilities Engineers / Managers, Maintenance Engineers / Managers, Design Engineers, Production And Manufacturing Engineers, Procurement Engineers, Process Engineers, Process Designers, Plant Engineers, Technicians And Any One Involved In Maintenance Engineering And Would Like To Widen Their Knowledge.


METHODOLOGY
Lectures, Discussion, Exercises & Calculations to ensure participants have a better understanding to improve their efficiency level.


LEARN FROM THE BEST
Ir. N. JAYASEELAN obtained his Higher National Diploma in Mechanical Engineering from Leeds Polytechnic (UK) and subsequently a Bachelors Degree (Honours) in the same discipline from the University of Malaya.


He has about 25 years of working experience in various industries, which includes building maintenance, foundry, manufacturing, marine, water and sewerage industries, etc. He has vast theoretical and practical knowledge on preventive, predictive, corrective and reliability centered maintenance (RCM).


He was a recipient of the Association of Overseas Technical Scholarships (AOTS) award on two occasions, awarded by the Ministry of Economy, Trade and Industry of Japan. Jayaseelan was also a member of the working group to draw up the energy efficiency and energy conservation guidelines for pumps and compressors for Malaysian industries organised by the Institution of Engineers, Malaysia, Pusat Tenaga Malaysia, and the Ministry of Energy, Water and Communications (KTAK).


He also actively writes technical articles for various international journals and magazines.


Jayaseelan is a Graduate Member of the Board Of Engineers (BEM), Malaysia, a Corporate Member of the Institution of Engineers, Malaysia (IEM), a Member of the Institution of Mechanical Engineers, United Kingdom (IMechE), an Associate Member of the American Society of Heating, Refrigeration and Air Conditioning Engineers (ASHRAE) and a Member of the American Society of Mechanical Engineers (ASME).


CERTIFICATE OF COMPLETION
A Certificate of Completion will be awarded upon successful completion of each course. This serves as evidence of your personal and professional commitment to you career.


COURSE TIMING
Registration: 8.30 am, Course Begins: 9.00 am,
Morning Coffee: 10.30 am, Lunch: 1.00 pm to 2.00 pm,
Tea Break: 3:30 pm, Course Ends: 5.00 pm