CEA Guidance Documents

Please see below CEA’s Boiler guidance documents, the introduction, the scope and the cost for a hard copy of each book.

Guidance Documents
BG01 – Guidance on Safe Operation of Boilers

Guidance for the Safe Operation of Boilers (Ref: BG01) is a guidance document intended to assist the managers, designers, operators, maintenance personnel and Competent Persons (CP) of new and existing steam boiler systems. Developed and written by the Combustion Engineering Association (CEA) and the Safety Assessment Federation (SAFed) in consultation with other stakeholders within the boiler industry. The revision (Edition 2) incorporates up-to-date information and best practices relating to the operation of steam boiler plant; hot water boilers will now be covered in a separate document (BG02).

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INTRODUCTION

Guidance on the Safe Operation of Steam Boilers (Ref: BG01) is a guidance document intended to assist the designers, managers, operators, maintenance personnel and Competent Persons (CP) of new and existing steam boiler systems in addressing the following issues:

  • The safe and efficient use and operation of the boiler installation;
  • Determining adequate supervision and maintenance requirements (levels and competence) that are consistent with the installed plant and its location;
  • Reducing the likelihood of explosion or other dangers from events such as:
    • Loss of feed water or low water level;
    • Over-pressure;
    • Overheating e.g. due to excessive scale;
  • Using efficient boiler operation to avoid excessive pressure or thermal cycles and load swings which can accelerate boiler fatigue or failure;
  • Having the proper treatment and monitoring of the feed water and condensate to:
    • minimise corrosion and scale; and
    • avoid carry-over of water with the steam which in turn can cause water-hammer and other issues;
  • Compliance with the various legal requirements, in particular that for periodic examination by a CP in accordance with a Written Scheme of Examination (WSE).

SCOPE

This document applies to all industrial & commercial steam boiler plant (normally shell boilers) operating at a working pressure up to 32 bar gauge, including vertical boilers, mobile steam boilers and waste heat boilers.

The following boilers are specifically excluded from the scope of this Guidance Document:

  • Hot water boilers;
  • Water tube boilers;
  • Steam boilers with a capacity exceeding either:
    • 37 MW nett rated thermal input, or
    • 32 bar gauge working pressure;
  • Domestic and commercial boilers with a capacity less than 70 kW;
  • Electric immersion boilers, electrode boilers and steam coil heated boilers;
  • Steam coil boilers (steam generators);
  • Boilers used for transport.

However, just because these boilers are outside the scope of BG01, this does not mean that the regulations and general principles in this document should not be applied where suitable and applicable.

Note that this edition of BG01 excludes hot water boilers which is the subject of new guidance document BG02 – Guidance on the Safe Operation of Hot Water Boilers.

BG02 – Guidance on Safe operation of Hot Water Boilers

This first Edition of BG02 incorporates up-to-date information and best practices relating to the operation of hot water boiler plant; steam boilers are covered in a separate document (BG01). The first edition of BG01 included hot water boilers, but in response to feedback from users of the document, this separate guide for hot water boilers was created. Guidance on the Safe Operation of Hot Water Boilers (Ref: BG02) is a guidance document intended to assist the designers, managers, operators, maintenance personnel and Competent Persons (CP) of new and existing low temperature and high temperature industrial shell hot water boiler systems.

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INTRODUCTION

Guidance on the Safe Operation of Hot Water Boilers (Ref: BG02) is a guidance document intended to assist the designers, managers, operators, maintenance personnel and Competent Persons (CP) of new and existing low temperature and high temperature industrial shell hot water boiler systems including in addressing the following issues:

  • The safe and efficient use and operation of the boiler installation;
  • Determining adequate supervision and maintenance requirements (levels and competence) that are consistent with the installed plant and its location;
  • Reducing the likelihood of explosion or other dangers from events such as:
    • Loss of water;
    • Over-pressure;
    • Overheating e.g. due to excessive scale;
  • Using efficient boiler operation to avoid the excessive pressure/thermal cycles and load swings which can accelerate boiler fatigue or failure;
  • Having the proper treatment and monitoring of the system and boiler water to minimise corrosion and scale and avoid microbiological fouling (biofouling), as these problems can result in energy wastage, poor system performance, and the need for early replacement of plant and components.
  • Compliance with the various legal requirements, in particular that for periodic examination by a CP in accordance with a Written Scheme of Examination (WSE) for high temperature hot water boilers.

SCOPE

This document applies to all industrial hot water boilers (normally shell boilers), including mobile hot water boilers and waste heat boilers, that fall into the following categories:

  • Low Temperature Hot Water boilers (LTHW)
    • Boilers designed to operate below 110°C with a design pressure up to 16 bar gauge; and
  • High Temperature Hot Water boilers (HTHW)
    • Boilers designed to operate above 110°C with a design pressure up to 32 bar gauge.

These guidelines cover the types of controls and limiters necessary to ensure safe operation of various arrangements of fully flooded hot water boiler systems both ?110oC and >110oC.  The term MTHW has not been used in this document for clarity.

The following boilers are specifically excluded from the scope of this Guidance Document:

  • Steam boilers and water tube boilers;
  • Boilers with a capacity exceeding 37 MW nett rated thermal input;
  • Domestic and commercial boilers with a rated capacity less than 100 kW;
  • Electric immersion boilers, electrode boilers and steam coil heated boilers;
  • Hot water coil boilers.

However, just because these boilers are out of scope of BG02, this does not mean that the regulations and general principles in this document should not be applied where suitable and applicable.

 

BG03 – Blowdown Systems Guidance for Industrial Steam Boilers

This comprehensive guide deals with all aspects of steam boiler blowdown for industrial steam boilers and why it is necessary to carry out the function of “blowing down” the boiler. We trust that by studying the contents and following this advice your boiler plant will operate safely and more efficiently, and provide you with a trouble-free system.

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Introduction

Blowdown Systems, Guidance for Industrial Steam Boilers (Ref: BG03) is a guidance document intended to provide advice to designers, specifiers, manufacturers, installers and those responsible for the management and operation of steam plant as well as Competent Persons (CP).  It is applicable to both new and existing installations of steam boilers and addresses the following issues:

  • The safe discharge of blowdown from boilers;
  • The safe use and operation of blowdown vessels;
  • The safe use and operation of blowdown pits;
  • Proper maintenance and inspection of blowdown vessels and pits including requirements for regular inspection by a Competent Person in accordance with the Written Scheme of Examination (WSE).

Advice was previously provided by Health and Safety Executive Guidance Note PM60 Steam boiler blowdown systems 2nd edition 1998 which has been withdrawn.

Scope

This guidance applies to blowdown arrangements for steam boilers with a maximum evaporative capacity not exceeding 30 tonnes of steam per hour and working pressures not exceeding 32 bar gauge including water tube boilers with a single main blowdown line.

The following are specifically excluded from the scope of this document:

  • Water tube boilers with multiple blowdown circuits
  • Blowdown tanks of non-circular cross-section
  • Design and construction information for blowdown pits. Experience has shown that the state of repair and rate of deterioration are difficult to monitor, and serious undetected leaks have been known to undermine foundations. It is recommended that no new blowdown pits be constructed and a blowdown vessel shall be the preferred option.
BG04 – Boiler Water Treatment Guidance for Shell Boilers, Coil Boilers, Steam Generators and Hot Water Boilers

This comprehensive guide deals with all aspects of water treatment for steam boilers, steam generators and hot water boilers. This document applies to industrial and commercial steam and hot water boiler plant, including steam generators, operating at a working pressure of between 0.5 and 32bar gauge (except where stated) and a working temperature between 110°C and 239°C. We trust that by studying the contents and following the freely given advice your boiler plant will operate safely and more efficiently, and provide you with a trouble-free system.

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SCOPE

This document applies to those industrial & commercial steam and hot water boiler plants, including steam generators, operating at a working pressure of between 0.5 and 32bar gauge and a working temperature between 110°C and 239°C.

The following boilers are specifically excluded from the scope of this Guidance Document:

  • Water tube boilers such as would be found at an energy producer;
  • Process Boilers with a capacity exceeding:
    • 70tonnes steam per hour;
    • 46MW thermal input;
    • 32bar gauge working pressure;
  • Domestic and commercial boilers smaller than 70kW thermal input;
  • Manually operated boilers (i.e. those requiring constant human intervention).

This document also excludes from its scope any consequences arising from incorrect steam pressure delivery from the boiler.

The purpose of this guide

Boiler failures can, and do, occur more frequently than are reported.  The common reasons for failures are:

  • Non-operation of controls due to sludge accumulation;
  • Perforation of smoke tubes due to corrosion;
  • Less frequently, but even more serious, overheating, distortion and even collapse of the furnace caused by scale or other deposits.

All of the above can be avoided by correct boiler water treatment.  Poor or inadequate water treatment has been shown to be the cause of more than 95% of all boiler failures.  Often this is as a result of poor management of the water treatment regime by whoever is collectively deemed responsible.

All sources of water contain impurities which are harmful to steam and hot water boilers.  All waters therefore need to be pre-treated and then chemically treated, either to remove these impurities or to minimise any adverse effects.

The Combustion Engineering Association and ICOM Energy Association are very pleased to be able, thanks to member input, to provide this publication relating to water treatment for shell boilers, coil boilers, steam generators and hot water boilers.

BG05 – Guidance on Design and Operation of Biomass Systems

This comprehensive guide concentrates upon the unique issues associated with the design, construction, operation and maintenance of biomass systems. We trust that by studying the contents and following this advice your plant will operate safely and more efficiently and provide you with a trouble-free system. It can aid in informing site / project specific risk assessment.

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Introduction

Guidance on Design and Operation of Biomass Systems (Ref: BG05) is a guidance document intended to provide advice to clients, designers and those who operate and maintain commercial or industrial (i.e. non-domestic) biomass systems using wood in the form of pellets or chips.

Those involved in the procurement, design, construction and the ongoing operation (including maintenance) of biomass systems have duties to co-operate and share relevant information required for the development of a safe system of work. They have a number of legal responsibilities (Duties of care) and to comply with these duties, they should possess or have access to good, current knowledge of health and safety legislation and practice, as well as ensuring personnel they employ are competent to carry out the required tasks safely.

The concepts governing safe design and operation are the same regardless of project size, from the smallest domestic installation, to the largest power station. While, this document focuses on the design and operation of new industrial and commercial installations, the information in this guide will also be relevant for smaller installations as well as the refurbishment or conversion of existing installations.

The content is most relevant to designers, building services designers and those practising as biomass specialists, e.g. for importers of biomass boilers. Those engaged in installing, operating or maintaining biomass systems will also find the content relevant and useful.

Scope

The use of Biomass has increased significantly over the last ten years. This increase is, in large part, due to a perception that biomass is green, clean and sustainable. These conceptions are, in part, driven by market pressure and, in part, underwritten with Government commercial interventions. The rapid development and deployment of biomass has, in some cases, resulted in the un-informed design, review, installation and operation of allied storage and combustion technologies (with attendant fatality and injury).

To date, there have been several serious accidents and at least one known fatality in the British Isles directly connected to biomass heating systems; accidents which could easily have been avoided if a process that ensures safe design and safe systems of work in biomass had been applied.

The most effective biomass systems are the result of a close working partnership between client, architect, mechanical and building services engineer where all aspects of design, management and operation are carefully considered and integrated, with an emphasis on health and safety.

Biomass systems are subject to the same general health and safety principles, codes of practice, and design, installation and operation standards that apply to gas, oil or coal fired boiler systems, including, for example, the provisions of the Pressure Systems Safety Regulations 2000.

The following are specifically excluded from the scope of this guidance document:

  • Detailed design information a might be contained within a British Standard Installation Guide.
  • Detailed information that would apply to all boilers regardless of fuel and might be regarded as “standard” boiler issues or pressure systems as governed by the Pressure Systems Safety Regulations 2000 (PSSR) or the Pressure Equipment Regulations 1999 (PER).
  • Installations where any fuel is pulverised. The hazard of dust explosions presented by such systems requires special design and operating criteria.
BG06 - De-aerators and Hot Wells

This comprehensive guide deals with all aspects of feedwater provision for industrial steam boilers (shell boilers) and why it is necessary to carefully manage and control the water that is supplied to the boiler. We trust that by studying the contents and following this advice your boiler plant will operate safely and more efficiently, and provide you with a trouble-free system.

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Introduction

Hot wells and De-aerators – Guidance for Industrial installations (Ref: BG06) is a guidance document intended to provide advice to designers, specifiers, manufacturers, installers and those responsible for the management and operation of steam plant as well as Competent Persons (CP).  It is applicable to both new and existing installations of hot wells and de-aerators and addresses the following issues:

  • The safe and correct provision of feed water for steam boilers;
  • The safe use and operation of hot wells and de-aerators;
  • Proper maintenance and inspection of hot wells and de-aerators

About this guide

This comprehensive guide deals with all aspects of feedwater provision for industrial steam boilers (shell boilers) and why it is necessary to carefully manage and control the water that is supplied to the boiler.  We trust that by studying the contents and following this advice your boiler plant will operate safely and more efficiently, and provide you with a trouble-free system.  If in any doubt contact the supplier, the system designer or your boiler water treatment specialist for advice.

It is aimed at the Owner, Operator, Engineer and Manager of the boiler plant to help them understand all aspects that affect the boilers and their water supply arrangements, both from a practical operational performance view and for the legal requirements.

It covers who is responsible for the safe and efficient operation of steam boiler plant, and who is responsible for managing the safe operation of this type of equipment.  Ultimately the responsibility lies with the most senior person on site.

With other HSE guidance being withdrawn, and having taken all factors into consideration, The Combustion Engineering Association (CEA) agreed to write this guide with the help of its members.

Within this Guide there are a significant number of legal requirements, regulations and standards highlighted; these regulations and standards are periodically reviewed and they can and do change, but they are as accurate as possible at the time of publication.

CEA cannot accept any liability for the information provided herein; however, be assured that we have consulted widely with our member companies during the compilation of this guide.

Scope

This guidance applies to feed water arrangements using hot wells and de-aerators of various designs for supplying feed water to steam boilers in commercial and industrial installations.  The primary purpose of a hot well or de-aerator is to manage and reduce the amount of dissolved gases in boiler feed water.

BG07 - Thermal Fluid Systems

This document, Thermal Fluid Systems - A Practical guide for Safe Design, Operation and Maintenance (BG07) has been developed and written by the Combustion Engineering Association (CEA) in consultation with its Members and other stakeholders within the thermal fluid industry to help designers, owners, managers and operators of new and existing thermal fluid heating systems to install and operate safe systems, and to make health and safety and environmental improvements in the industry. The objective is to help users of thermal fluid systems manage their own risks and create safe and efficient installations.

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1                INTRODUCTION

Thermal fluid heating systems are in common use across many sectors of industry and it is estimated there are at least 2000 installations of such heaters in the UK fired on natural gas and light oil, and many more, often smaller units, utilising direct electrical heating of the fluid.  Biomass is also used in some installations as a fuel.

Thermal fluid heaters are available in a wide range of sizes to suit many different applications and temperature requirements.  Units capable of delivering fluid temperatures to processes at up to 350oC range from 100kW to around 17MW output, with smaller sizes for providing heat to individual process machines also being readily available.  Some systems also include cooling capability to around minus 50oC with the correct choice of fluid.

Users of these installations operate in a wide variety of industries including:

  • Food and drink manufacturing, breweries and distilleries;
  • Printing and coatings industries;
  • Petrochemicals and bitumen reactors;
  • Fine chemicals;
  • Wood panel and composite panel manufacturing;
  • Extrusion and moulding processes;

This guidance is for users of thermal fluid systems to enable them to fully understand the capabilities of thermal fluid heaters and the way they can be integrated into their business.  It will also be useful for designers and installers to remind them of emerging legislation and best practices that affect the installations they create, and it will help plant operators and maintenance contractors to keep the installations operating safely and at optimum efficiency.

There are a number of sets of legislation relating to the design, installation, operation and maintenance of industrial equipment such as thermal fluid heaters and associated systems, and reference is made to the most significant of these throughout the text.

BG08 - Temporary Steam and Hot Water Boiler Plant

This comprehensive guide deals with all aspects of designing, procuring, installing and operating a temporary steam or hot water boiler installation. We trust that by studying the contents and following this advice your temporary boiler plant will operate safely and more efficiently, and provide you with a trouble-free system.

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Introduction

Temporary Steam and Hot Water Boiler Plant – Guidance for Safe Installation and Use (Ref: BG08) is a guidance document intended to provide advice to all those involved in
the design, procurement, manufacture, supply, installation and use of temporary steam and hot water boiler installations. It is applicable to all temporary installations of boilers and addresses the following issues:

  • The Legal and Regulatory framework, ownership and responsibilities;
  • The Specification and Design of temporary boiler installations;
  • Temporary boiler installation guidance and best practice;
  • Operation and maintenance of the temporary plant.

British Engineering Services clearly state on their website under Boiler inspection:
“Wrongly designed, sited or installed boilers can lead to serious failures that can have a major effect on people, production and the plant in general. As a manager or an employer, you have an obligation to ensure the safe installation and operation of your boiler systems, as well as conduct regular engineering inspections as identified by the written scheme of examination, governed by the Pressure Systems Safety Regulations 2000”

SCOPE

This guidance applies to all steam and hot water boilers supplied and installed as temporary plant on a site to replace or supplement existing steam or hot water capacity. Temporary boilers on trailers or in containers are normally available in sizes up to around 8,000 kg/h and 15 bar steam. It includes guidance on design, procurement, supply, installation, operation and maintenance of all temporary boiler plants.

BG10 - Safe Isolation of Plant and Equipment

The CEA has produced this guidance document for managers and operators of small and medium sized installations who would benefit from clear advice on safe local isolation activities, often of short duration, whilst still appreciating that failures during isolation and reinstatement of plant items are one of the main causes of loss-of-containment incidents, and may lead to major accidents.

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1          INTRODUCTION

Most industrial and commercial processes involve the use of services and fluids that are normally contained within pipes, ducts and wires, and they are generally safe to use if the systems that contain them are correctly designed and installed, and properly maintained.  However, almost all such installations will require disconnection or dismantling at some stage in their life, sometimes many times over, for activities such as repair, replacement or routine maintenance.  Equipment in normal operating mode will usually run safely without any problems, but as soon as the equipment is required to be maintained or repaired it is extremely likely it will need to be isolated from all its sources of energy and any danger.

The common factor is that any commissioning, maintenance or repair activity on those assets must be carried out with all due regard for the safety of people involved and those around them, and every intervention must therefore be preceded by a safe isolation procedure.  However, taking equipment apart inevitably requires that it is put back together correctly, necessitating following of a safe process of reinstatement.

Guidance on the Safe Isolation of Plant and Equipment (Ref: BG10) is a document intended to assist managers, operators and maintenance personnel of new and existing industrial and commercial plant installations in addressing the following issues:

  • How to assess risks associated with isolating services for repair and maintenance activities on industrial and commercial plant;
  • Producing procedures to ensure a safe working environment for those activities;
  • Safe methods of managing plant and equipment isolation activities including Permit to Work (PtW) systems.

The Health & Safety Executive (HSE) published HSG253 “The Safe Isolation of Plant and Equipment” in 1997, an informative document on this subject which was updated in 2006; it is still freely available on the HSE website.  It was conceived and drafted by experienced industrial plant engineers but focussed on larger installations and somewhat complex industrial processes that rightly require rigorous control measures to be put in place for all operation and maintenance activities.  Nevertheless, much of the information in HSG253 is relevant to other plant installations, and short sections are repeated where necessary in this guidance for consistency across industry.

BG11 - Safe Operation of Water Tube Boilers

This document applies to all industrial and commercial water tube steam and hot water boiler plant operating at a working pressure up to 100 bar and utilising a wide variety of fuels or heat sources including fired and unfired heat recovery steam generators (HRSG) where appropriate. Whilst the cut off pressure for this guidance is set at 100 bar there are many aspects of boiler operation and maintenance herein which are equally applicable to higher pressure boilers.

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Introduction

Guidance on the Safe Operation of Water Tube Boilers (Ref: BG11) is a guidance document intended to assist the designers, managers, operators, maintenance personnel and Competent Persons (CP) of new and existing steam boiler systems in addressing the following issues:
• The safe and efficient use and operation of the boiler installation;
• Determining adequate supervision and maintenance requirements (levels and competence) that are consistent with the installed plant and its location;
• Reducing the likelihood of explosion or other dangers from events such as:
o Loss of feed water or low water level;
o Over-pressure;
o Overheating e.g. due to excessive scale;
o High wastage rates on metal surfaces;
o Incomplete combustion of fuel;
• Using efficient boiler operation to avoid excessive pressure or thermal cycles and load swings which can accelerate component fatigue damage through to premature failure;
• Having the proper treatment and monitoring of the feed water and condensate to:
o Minimise corrosion and scale; and
o Avoid carry-over of water with the steam which in turn can cause steam hammer and other issues;
• Compliance with various legal requirements, in particular that for periodic examination by a CP in accordance with a Written Scheme of Examination (WSE) and all relevant environmental legislation.

Water tube boilers are large and expensive items of capital plant that frequently have a service life of 25 years or more. It is not possible in this document to cover every type of boiler or every installation scenario for water tube boilers, but the safe operation and maintenance of boilers that have been in service for many years is of equal importance to the design and operation of new boilers; references in the text may include plant items and techniques that are no longer available but still in daily use.

One important aspect of water tube boiler design and operation is the availability, maintenance and monitoring of appropriate high quality water supplies. Many volumes of excellent material exist that cover this subject in more detail, so the references to water treatment plant and water quality in this document are here as a reminder of the general principles and the reasons for maintaining good quality water and not a detailed explanation of the individual plant items or techniques required which will be bespoke to each and every installation.

Another significant consideration is the selection and treatment of the correct metals and alloys in various boiler parts commensurate with the type of fuel to be combusted. The vast majority of the damage that occurs in a water tube boiler results from corrosion and erosion effects which commonly act in combination to contribute to excessive local wastage rates on metal parts.

Water tube boilers come in many shapes and sizes, use a wider variety of fuels than any other boiler type, and serve a range of industries in many different sectors. It would be impossible to cover every aspect of design, operation and maintenance of all such installations in one document.

The contributors to this guidance have used their combined years of experience to bring together as many elements as possible, but if errors are found or adjustments to the text are required, please contact the CEA for clarification and for amendments to be made.

This document will be kept under review and amended as necessary in the light of emerging technologies, improved working practices, new legislation or any other relevant aspect.

"Even Hestnes, Engineering Manager, at the Fourstones Sapphire Paper Mill in Fife has commented on the Boiler Operations Accreditation Scheme (BOAS) and has said; Our experience with the BOAS training and the stringent requirements of the CEA certification scheme for operators and managers has been a real benefit for us and how we operate the steam plant here. The importance of having a firm handle on training of the personnel is evident and we will certainly use the training as well as the thorough assessment as a tool going forward to ensure our plant is operated and maintained in a safe and concise manner. The Training Provider, and the Assessor has managed in a fluent way to provide firm advice on how we need to resolve gaps in skill sets and operational procedures to better our operation on top of the training package. Having this type of service benefits every aspect of our operation. Even has been awarded with his BOAS Managers Accreditation. Fourstones operates from three sites in rural parts of Northumberland and Fife. Established in 1763, Fourstones Paper Mill is steeped in history and tradition. With a wealth of knowledge that only experience can provide, coupled with a modern business management style and technologically advanced manufacturing facilities – the company is ideally placed to service the specialist markets in which it operates. The Fourstones Group/Paper Mill is growing rapidly into new product areas. The current success of the company is based on listening to our customers needs and reacting to them. Our bespoke service, tailored to individual customer needs, is unrivalled in our industry. Our team of motivated, experienced and highly skilled employees continue to drive the business forward. "

Even Hestnes, Fourstones Sapphire Paper Mill

"This was the second CEA event I have attended (How to Make Your Steam Work for You 2019 & Technical Boiler House Risk Assessment 2015) and once again the CEA has delivered a superb two day package. There were 14 sessions delivered over a two day period, with each of the sessions referenced to both statutory requirements and the ever expanding BG series of documents produced by the CEA (a must read set of documents). The sessions were delivered by authorities in their respective topics, and were highly interactive. Each delegate was provided with a full set of delegate notes plus copies of all of the existing BG documents – a pack of information that if individually purchased would cost almost as much the delegate attendance fee. The event was strongly supported by the industrial partners and members of the CEA, who all had stands and expert staff on hand. The above, coupled with an informal drinks reception, combined with an excellent venue, made this without a doubt the best two days of mechanical training I have attended in recent years. "

Serco UK & Europe – Head of Authorising Engineering Policy & Compliance

"Selected members of my team and I were fortunate enough to attend the CEA Conference held in Elgin, September 2019. Quite simply it was one of the most informative engineering seminars I have attended in recent years. The level of expertise and knowledge-sharing was exceptional, and each element delivered by the country's foremost experts. The legislative guidance was often supplemented by best practice case studies which underpinned the context and brought the requirements to life. The sessions were certainly value-add and have fostered an on-going relationship between Malt Distilling, the CEA and associated team. Thank you, CEA, for putting together such a fantastic event and for the ongoing support we enjoy from the CEA. Gary Callow CEng MIET Asset Care Manager - Malt Distilling Diageo"

Gary Callow – Malt Distilling Diageo

"Following BOAS Training, I have since attended the Technical Boiler House Risk Assessment conference which has been very useful in giving me the tools to enable implementing my own technical Risk Assessments. The CEA are always on hand for advice and networking in other areas, on the recommendation of David Kilpatrick I have since started my team on an industrial gas qualification I-GAS, which is going well so far. As a customer I have found the whole experience excellent and would most definitely recommend the CEA. Well done. "

Dean Sheldrake, Superintendent Utility & Estate Services – Ford Motor Company Limited

"The Combustion Engineering Association Conference and workshop programme allows you to absorb legislation and your responsibilities with a group of likeminded people and together improve your knowledge and understanding of the subject. All the speakers know their subject and you get the chance to interact with them and get advice in plain English. The sessions are practicable and relevant with a chance to interact with others operating steam equipment where you can also share your experiences."

Keith Hawkins, Eng Tech MSOE MIPlantE

"The Tankersley Manor BG04 course was attended by myself and two of my team. The whole event from start to finish was well organised and well presented with very knowledgeable people delivering the course content. Having spent over 40 years working in site services provision I found the course very informative. I would highly recommend this course to anyone even with several years of experience such as myself."

Kevin Manning, Site Engineering Services Manager Dip BOM

"“The Steam Boiler Water Testing Course covered a lot of information, delivered in concise chunks that were easy to absorb. The structure was clear, logical and effective and the CEA has obviously put a lot of thought and expertise into designing it in line with BG04. The main benefits came from doing assignments, receiving individual feedback and interacting with the training provider. The format gave me the confidence to implement new testing techniques and to understand the importance of water treatment as an engineer and not as a chemist. A must for all boiler Operators/Managers.” "

Steve Bagnall, Dip.BOM Estates Manager

"I contacted the CEA for advice on training after the completion of our new boiler house in 2015 on the recommendation of the boiler manufacturer. I was contacted by David Kilpatrick who recommended the BOAS accreditation for Managers, Supervisors, & Operators, which we completed. I found the course very informative giving us an excellent understanding of BG01, with the benefit of having it delivered on our own premises. My team have all given positive feedback on what they received. The CEA is always on hand for advice and networking in other areas, on the recommendation of David Kilpatrick I have since started my team on an industrial gas qualification I-GAS, which is going well so far. Read Full Testimonial"

Dean Sheldrake, Superintendent Utility & Estate Services – Ford Motor Company Limited

"I have found individual membership beneficial to myself along with BOAS accreditation. BOAS accreditation was an important part of professionally proving my competence to operate and look after steam plant. I found that maintaining membership was useful in assisting to keep me up to date with changes as they happened around the steam industry. Membership also gives you the chance to get involved with the C.E.A. and help to make a difference. Their work on the Boiler Operator Accreditation, Boiler Feed Water (BG04) and Industrial Gas Accreditation Scheme (I-GAS) which needed members to get together and write and set up the system and documents. This needs input from experts in their respective fields as well as some input from the intended recipients. If we put nothing in ourselves to CEA we will get nothing out, so attending and taking part will help you, others and the C.E.A."

Keith Hawkins, Eng Tech MSOE MIPlantE