Summer Power Seminars

On the French Riviera, June 10-14, 2019

Partners: TG Advisers, USA; Prof. B Leckner, Chalmers University of Technology

A unique opportunity to update your knowledge on your power plant’s Capital Equipment. Hear from industry-leading experts on Gas Turbines, HRSGs, Fluidised Bed Boilers and Steam Turbines. Sharpen your skills with the latest information on inspecting, analysing and maintaining your critical power generation assets.

Tetra Engineering has partnered with turbine experts TG Advisers Inc., and Fluidised Bed Boiler expert Prof. B. Leckner (Chalmers University of Technology, Sweden) to deliver a comprehensive course set, targeted at O&M engineers with critical technical responsibilities. The programme will run as follows:

Nice Wikimedia

May 2019: Effective HRSG Operations

May 15 & 16, 2019 at The Chateaux Deer Valley in Park City, Utah USA

134058019

Course Overview:

This seminar is primarily intended for O&M staff at all levels of experience working in combined cycle power plants, but should also be of interest to engineers and managers involved in new project development. The course gives attendees a comprehensive yet in-depth survey of a broad range of topics relating to the design, operation and maintenance of the HRSG and associated steam cycle systems. This year we’ve added additional material on emissions controls by SCR and CO catalysts as well as additional insights on chemical and fireside cleaning, low load operation and desuperheater design. Also included is a discussion on HRSG Fabrication and Procurement.

Drawing on our field experience working at power plants throughout the world, the objective is to provide attendees with clear instruction on the operator actions and design issues that impact HRSG reliability, efficiency and operating life.

Tetra Engineering has offered this seminar for many years and it is updated annually. Recent seminar sites have included USA, Turkey, UAE and Malaysia. The instructor /seminar leader is David Moelling, P.E., Tetra Engineering’s Chief Engineer. He has presented these seminars for over 15 years. Ms. Early Femiana will discuss the details of HRSG specification, manufacture, shipping and assembly from her 10 years with GE/Alstom for all types of HRSGs.

Combined Cycle Power Plant Fundamentals

Overview

Gas Turbine Combined Cycle (GTCC) technology is a leading solution in improving efficiency and reducing emissions. The course provides an introduction to the basic thermodynamic concepts underlying the design and operation of GTCC plants, followed by a description of the major components and their operation.  Participants will complete the course with an understanding of what drives the performance of the integrated plant.  

The one day course is suitable for anyone with a general technical background that is or will be involved in the construction, operation or management of GTCC power plants. 

Course Syllabus

Thermodynamic Fundamentals

Introduction and Review of Thermal Power Cycles

  • Ranking and Carnot Cycles
  • Conventional Boilers
  • Combined Cycle Gas Turbine (CCGT) Plant Basics
  • History and Evolution of CCGT
  • Future Trends in Power

The Gas Turbine (GT)

  • Design Fundamentals
  • Types and Applications

The Heat Recovery Steam Generator (ST)

  • Design Fundamentals
  • Design Variants
  • Key Components

The Steam Turbine (ST)

  • Design Types
  • Key Components
  • Operation

Electrical Plant

  • Basics
  • AC Generators
  • Switchgear and Transformers

Balance-of-Plant

  • Air, Water and Fuel Supply
  • Emissions Control
  • Cooling Systems
  • Piping and Pumps

Operational Aspects

  • Startup, Cycling & Load Changes
  • Preservation
  • Alternate Fuels
  • Plant Protection and Control
  • Lifetime and Mainteance Issues
  • Performance Tracking

For  more information about this course please contact Christine Vallon, or call our European office at +33 4 92 96 92 54. Tetra offers courses on client site or as per our public course schedule

Root Cause Analysis for Boiler & HRSG Failures

Overview

This training course is primarily intended for experienced O&M staff working in thermal power and process plants as well engineering and management staff at the corporate level. The objective is to give attendees all the essentials for effective determination of the root cause of failures that can occur in the boiler or associated steam balance-of-plant. The principal failure modes are reviewed, with focus on those occurring in the boiler, critical piping and other key components such as pressure vessels and condensers. Major emphasis is placed on analyzing how upstream events in the steam cycle process can lead to failures in downstream components. Several actual failure case histories treated by Tetra Engineering staff at plants around the world are presented, providing attendees with practical application of the presented concepts.

Course Syllabus

Review of Steam Cycle Damage Mechanisms

Gain an overview of the most common damage mechanisms, either on the waterside or fire/gas/air-side, that can affect components in the steam cycle

  • General Surface Corrosion
  • Pitting Corrosion
  • Flow Accelerated Corrosion, Cavitation and Fluid Erosion
  • Underdeposit Attack
  • Fatigue and Corrosion Fatigue
  • Creep, Creep Fatigue and other Heat Damage
  • Fire or Gas Side Erosion or Attack
  • Gas and Waterside Fouling
  • Hydrogen Embrittlement
  • Stress-Corrosion Cracking

Steam Cycle Components and Failure Modes

A summary of failure modes and mechanisms most frequently observed in various steam cycle components

  • Boiler Tubes and Internal Pressure Parts
  • Boiler Gas Path and Exterior
  • Power Piping (Condensate, Feedwater and Steam)
  • Valves and Pumps a (Summary with Focus on Major Items)
  • Condensers and Other Heat Exchangers
  • Pressure Vessels

Collecting Evidence and Identifying the Failure Mechanism

The key first step is to define the problem, collect the evidence and then identify the component failure mechanism. It’s important to remember that this is usually not the same as the failure root cause.

  • Defining the Investigation Scope
  • Collecting the Field Evidence: Visual, NDE and Destructive Samples
  • Process Data Collection
  • Overview of Laboratory Analytical Techniques
  • Getting the Most Out of Metallurgy
  • Effective Reporting

Root Cause Analysis Methods

There are several methods or approaches to determining the root cause, these are presented in summary fashion here as background. Despite their differences, all follow a similar overall strategy and aim to achieve the same goal. Whatever the method chosen, it is important to remember that the ultimate objective is to find a solution that prevents further failures.

  • Five Whys
  • Failure Modes and Effects Analysis (FMEA)
  • Pareto Analysis
  • Fault Tree Analysis
  • Current Reality Tree
  • Fishbone Diagram
  • Kepner-Tregoe Method
  • RPR Problem Diagnosis

Sample Case Histories and Discussion

Examples from recent projects performed by Tetra staff are presented, covering failure analyses on a variety of steam cycle pressure part components

  • Steam Turbine Corrosion
  • HRSG Casing Vibration
  • Superheater Tube CrackingFailure 1
  • Superheater Tube Burst Failure
  • HRSG LP Evaporator Tube Burst Failure
  • Boiler Tube Fouling
  • Others…….

 

For  more information about this course please contact Christine Vallon, or call our European office at +33 4 92 96 92 54. Tetra offers courses on client site or as per our public course schedule

June, 2019 - Failure Root Cause Analysis in the Boiler

June 13, 2019 in Sophia Antipolis, France

Overview

This training course is primarily intended for experienced O&M staff working in thermal power and process plants as well engineering and management staff at the corporate level. The objective is to give attendees all the essentials for effective determination of the root cause of failures that can occur in the boiler or associated steam balance-of-plant. The principal failure modes are reviewed, with focus on those occurring in the boiler, critical piping and other key components such as pressure vessels and condensers. Major emphasis is placed on analyzing how upstream events in the steam cycle process can lead to failures in downstream components. Several actual failure case histories treated by Tetra Engineering staff at plants around the world are presented, providing attendees with practical application of the presented concepts.

Course Syllabus

Review of Steam Cycle Damage Mechanisms

Gain an overview of the most common damage mechanisms, either on the waterside or fire/gas/air-side, that can affect components in the steam cycle

  • General Surface Corrosion
  • Pitting Corrosion
  • Flow Accelerated Corrosion, Cavitation and Fluid Erosion
  • Underdeposit Attack
  • Fatigue and Corrosion Fatigue
  • Creep, Creep Fatigue and other Heat Damage
  • Fire or Gas Side Erosion or Attack
  • Gas and Waterside Fouling
  • Hydrogen Embrittlement
  • Stress-Corrosion Cracking

Steam Cycle Components and Failure Modes

A summary of failure modes and mechanisms most frequently observed in various steam cycle components

  • Boiler Tubes and Internal Pressure Parts
  • Boiler Gas Path and Exterior
  • Power Piping (Condensate, Feedwater and Steam)
  • Valves and Pumps a (Summary with Focus on Major Items)
  • Condensers and Other Heat Exchangers
  • Pressure Vessels

Collecting Evidence and Identifying the Failure Mechanism

The key first step is to define the problem, collect the evidence and then identify the component failure mechanism. It’s important to remember that this is usually not the same as the failure root cause.

  • Defining the Investigation Scope
  • Collecting the Field Evidence: Visual, NDE and Destructive Samples
  • Process Data Collection
  • Overview of Laboratory Analytical Techniques
  • Getting the Most Out of Metallurgy
  • Effective Reporting

Root Cause Analysis Methods

There are several methods or approaches to determining the root cause, these are presented in summary fashion here as background. Despite their differences, all follow a similar overall strategy and aim to achieve the same goal. Whatever the method chosen, it is important to remember that the ultimate objective is to find a solution that prevents further failures.

  • Five Whys
  • Failure Modes and Effects Analysis (FMEA)
  • Pareto Analysis
  • Fault Tree Analysis
  • Current Reality Tree
  • Fishbone Diagram
  • Kepner-Tregoe Method
  • RPR Problem Diagnosis

Sample Case Histories and Discussion

Examples from recent projects performed by Tetra staff are presented, covering failure analyses on a variety of steam cycle pressure part components

  • Steam Turbine Corrosion
  • HRSG Casing Vibration
  • Superheater Tube CrackingFailure 1
  • Superheater Tube Burst Failure
  • HRSG LP Evaporator Tube Burst Failure
  • Boiler Tube Fouling
  • Others…….

 

Registration

The registration fee for the course is 700€ per person and includes all course materials, as well as a lunch each day of the course. Early-bird discount of 15% applies until 28 February, 2019.  Discount of 20% if included in the booking of a full track (five days of courses) or if any company books five or more days of courses in total for their staff.

To register or for more information, please contact Christine Vallon, or call our European office at +33 4 92 96 92 54.

About Us

Established in 1988, Tetra Engineering has more than 25 years experience providing solutions to the power industry. We specialize in solutions for HRSGs, conventional boilers & steam-cycle balance of plant.

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Our Locations

Offices in: Connecticut, USA; Nice, France; Dubai, UAE.