| Maintenance
Management training
| Course title |
: |
Root
Cause Failure Analysis |
| Duration |
: |
Three days |
| Faculty |
: |
Two specialists from HIMER |
| Objective |
: |
To identify appropriate techniques and methods
for finding and eliminating the root cause of a
failure |
| Who should attend |
: |
Managers and Senior Engineers from production
and maintenance |
Course content:
Theory and exercises
Troubleshooting vs
failure analysis – failure patterns – influence
of age, degradation, wear on components/equipment –
RCFA techniques: cause & effects diagram, fault
tree analysis & sequence of events analysis –
choosing appropriate RCFA techniques – RCFA methodology:
data collection, design review, procedure review, interviewing
people, brainstorming, arriving at the root cause –
eliminating the root cause – implementing &
monitoring the failure prevention strategy
Course outcome
At the end of the Program, the participants
will be able to:
-
Define failure,
failure modes
-
Differentiate between troubleshooting
and failure analysis
-
Define Root Cause Failure Analysis
-
List and use RCFA techniques such
as Fault Tree Analysis, Cause & Effect Analysis
and Sequence of Events Analysis
-
Select the equipment for performing
RCFA
-
Gather and analyse the failure
data and document
-
Analyse the root causes of common
failures in typical equipment of process plants
-
Analyse the given problem and identify
the root cause
Special requirements
Drawings, Details & Failure data
of client’s equipment which fails frequently

| Course title |
: |
Reliability
Centred Maintenance |
| Duration |
: |
Three days |
| Faculty |
: |
Two specialists from HIMER |
| Objective |
: |
To determine an appropriate maintenance strategy
for plant equipment based on its operating context
and to identify effective maintenance tasks that
will avoid or reduce consequences of failures |
| Who should attend |
: |
Managers and Senior Engineers from production
and maintenance |
Course content: Theory and exercises
Why RCM – Failure
patterns – SAE RCM Standard – The seven
steps of RCM Process – Functional criticality
analysis – FMEA methodology – Hidden &
Evident failures – Maintenance task selection
– PF interval – Frequency for random failures
Course outcome
At the end of the Program, the participants
will be able to:
-
Calculate
Criticality Score, Priority Score and Criticality
Index for plant equipment
-
Rank equipment according to criticality
as most-critical, critical and less-critical
-
Select critical equipment for RCM
based on criticality index
-
Identify the functions and functional
failures of an equipment
-
List dominant failure modes and
their effects
-
Classify
functional failure consequences into one of the
following categories
- Hidden or evident
- Safety or environmental
- Operational or non-operational
-
Define proactive task, reactive
task, on-condition task, scheduled restoration task
and failure-finding task
-
Perform analysis using RCM-Decision
Logic and chose the maintenance tasks
-
Determine the appropriate maintenance
required at the right intervals.
Special requirements
Drawings, Details & Failure data
of client’s equipment which fails frequently

| Course title |
: |
Vibration
Analysis |
| Duration |
: |
Three days |
| Faculty |
: |
Two specialists from HIMER |
| Objective |
: |
To effectively carry out vibration analysis to
pinpoint potential failures and thereby reduce invasive
maintenance |
| Who should attend |
: |
Mechanical maintenance engineers and supervisors
(one or two electrical engineers may also be included) |
Course content: Theory and exercises
Vibration analysis
terms - instrument selection – probe location
– vibration parameters – measurement –
analysis of measured data – interpretation of
readings – diagnosis
Course outcome
At the end of the Program, the participants
will be able to:
-
Define vibration analysis terms
– displacement, velocity, acceleration, frequency,
spectrum and phase
-
Select appropriate vibration analyser
for a particular task
-
Identify and locate the vibration
pickup precisely with respect to position and orientation
for achieving best results
-
Measure and record data using the
vibration analyzer
-
Analyse the
vibration data to pinpoint problems relating to
- Unbalance, Misalignment,
Mechanical looseness
- Differentiate between bearing
defects like Axial play, Adaptor sleeve looseness,
Axial thrust, Increased clearance, Ovality in
bearing housing, Fit between bearing and shaft,
Bearing skewness (improper seating of bearing
in housing)
- Gear meshing, Belt inaccuracies
-
Differentiate between bent shaft
and misalignment
-
Identify resonance problems
-
Electrical defects such as air
gap variation, electrical unbalance, magnetic centre
deviation
-
Identify allowable limits of vibration
-
Classify the machinery on the basis
of vibration readings
-
Define the procedure for in-situ
balancing
-
Achieve Clarity on applying ISO
10816 Standards for rotating and non-rotating parts
Special requirements
Access to rotating machinery in your
site for hands-on practice. The vibration analyzer will
be brought by HIMER.

| Course title |
: |
Maintenance
management – Achieving maintenance excellence |
| Duration |
: |
Three days |
| Faculty |
: |
Two specialists from HIMER |
| Objective |
: |
To effectively identify and implement maintenance
management concepts that would lead to improving
maintenance performance |
| Who should attend |
: |
Maintenance managers and engineers from mechanical,
electrical, electronics & instrumentation |
Course content:
Asset management for total productivity
– functional and equipment criticality analysis
– maintenance methodology for different equipment
– reliability, availability & maintainability
– maintenance organization – maintenance
planning & scheduling – work control –
computerized maintenance management systems –
key performance indicators & benchmarking
Course outcome
At the end of the Program, the participants
will be able to:
• Identify critical
equipment based on maintenance and production factors
• Choose appropriate maintenance methodology
• Calculate true MTBF, MTTR & reliability
• List planning steps
• List scheduling parameters
• Adopt maintenance work control
• Implement / fine tune CMMS to meet organisational
goals
• Select key performance indicators for measurement
and improvement
Special requirements
None

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