Proactive Risk Management

Failure Modes & Effects Analysis

Proactive risk assessment methodology to identify potential failure modes and their impact on system performance, safety, and reliability

85%
Risk Reduction Achieved
50%
Development Time Savings
70%
Quality Improvement
95%
Client Satisfaction Rate

Types of FMEA Analysis

Comprehensive failure analysis methodologies tailored to different phases of product and process development

System FMEA

High-level analysis focusing on system-level failures and their effects on overall system performance.

System Boundary Definition
Interface Analysis
System-Level Failure Modes
Cascading Effect Analysis
System Performance Impact
Critical Path Identification

Design FMEA (DFMEA)

Product design analysis to identify potential failure modes during the design phase and their impact on product performance.

Design Failure Modes
Design Parameter Analysis
Material Selection Review
Design Validation
Design Robustness Assessment
Design Improvement Recommendations

Process FMEA (PFMEA)

Manufacturing process analysis to identify potential failure modes in production processes and their impact on product quality.

Process Step Analysis
Process Parameter Control
Quality Control Points
Process Capability Assessment
Process Improvement Actions
Process Monitoring Systems

FMEA Methodology

A systematic 6-step process for comprehensive failure mode and effects analysis

01

System Definition

Define system boundaries, functions, and interfaces to establish the scope of analysis.

02

Failure Mode Identification

Identify all potential failure modes for each component, subsystem, or process step.

03

Effects Analysis

Analyze the effects of each failure mode on system performance, safety, and reliability.

04

Cause Analysis

Identify root causes and mechanisms that could lead to each failure mode.

05

Risk Assessment

Calculate Risk Priority Numbers (RPN) based on severity, occurrence, and detection ratings.

06

Action Planning

Develop and implement corrective actions to reduce risk and improve system reliability.

Risk Priority Number (RPN) Components

Three key factors that determine the risk level of each identified failure mode

Severity (S)

Scale: 1-10

Measures the impact of the failure effect on the system, customer, or end user.

1-2: Minor inconvenience
3-4: Customer dissatisfaction
5-6: Customer complaint
7-8: Safety hazard
9-10: Catastrophic failure

Occurrence (O)

Scale: 1-10

Measures the likelihood that the failure mode will occur during the design life.

1-2: Very unlikely
3-4: Unlikely
5-6: Moderate
7-8: High probability
9-10: Almost certain

Detection (D)

Scale: 1-10

Measures the likelihood that the failure mode will be detected before it reaches the customer.

1-2: Almost certain detection
3-4: High detection probability
5-6: Moderate detection
7-8: Low detection probability
9-10: Very unlikely detection

RPN Calculation

Risk Priority Number = Severity × Occurrence × Detection

RPN = S × O × D

Higher RPN values indicate higher risk and require immediate attention

FMEA Benefits

Measurable improvements achieved through systematic failure mode analysis

60%

Risk Reduction

Proactive identification and mitigation of potential failure modes before they occur.

40%

Cost Savings

Reduction in warranty claims, recalls, and field failures through early problem identification.

50%

Quality Improvement

Enhanced product and process quality through systematic failure mode analysis.

35%

Customer Satisfaction

Improved reliability and performance leading to higher customer satisfaction.

Industry Applications

FMEA methodology applied across diverse industries for risk management and quality improvement

Automotive Industry

Vehicle systems, powertrain components, safety systems, and electronic controls.

Examples:

Engine Components
Brake Systems
Airbag Systems
Electronic Control Units

Manufacturing

Production processes, equipment, and quality control systems.

Examples:

Assembly Processes
Machining Operations
Quality Inspection
Packaging Systems

Aerospace & Defense

Aircraft systems, avionics, propulsion systems, and safety-critical components.

Examples:

Flight Control Systems
Navigation Systems
Engine Components
Safety Systems

Medical Devices

Medical equipment, diagnostic devices, and life-support systems.

Examples:

Surgical Instruments
Diagnostic Equipment
Patient Monitoring
Therapeutic Devices

Energy & Power

Power generation, transmission, and distribution systems.

Examples:

Turbine Systems
Electrical Grid
Renewable Energy
Power Distribution

Oil & Gas

Drilling equipment, processing facilities, and pipeline systems.

Examples:

Drilling Rigs
Refinery Equipment
Pipeline Systems
Safety Systems

Industry Standards & Certifications

Our FMEA practices are aligned with international standards and best practices, ensuring compliance and excellence in every analysis.

AIAG-VDA FMEA

Automotive Industry Action Group and Verband der Automobilindustrie FMEA standard

SAE J1739

Society of Automotive Engineers FMEA standard for automotive applications

IEC 60812

International Electrotechnical Commission standard for failure modes and effects analysis

MIL-STD-1629A

Military standard for procedures for performing a failure mode, effects, and criticality analysis

ISO 14971

Medical devices - Application of risk management to medical devices

IEC 61508

Functional safety of electrical/electronic/programmable electronic safety-related systems

Why Choose Our FMEA Expertise

Certified FMEA Practitioners

AIAG-VDA and SAE certified FMEA specialists

Industry Experience

Extensive experience across automotive, aerospace, and manufacturing

Proven Methodology

Systematic approach with measurable results and continuous improvement

Software Tools

Advanced FMEA software and digital tools for comprehensive analysis

Ready to Implement FMEA?

Enhance Your Risk Management Today

Let our FMEA experts help you identify and mitigate potential failures before they impact your operations