Producing forged parts by hand forging — Practical project and reflection

Introduction

This aiMOOC is the Practical project and reflection module of Producing forged parts by hand forging. It is designed for vocational learners in blacksmithing, artistic metalwork, craft metalwork and related forge-based training. You will plan, make, inspect and reflect on a small hand-forged component while connecting workshop practice with material behaviour, quality, safety, sustainability and professional judgement.

Selected jurisdiction: United Kingdom — England. Occupational-safety statements in this module use the law and guidance that apply in Great Britain and therefore apply in England. Vocational-pathway statements are labelled England and use Skills England information. Northern Ireland has separate health-and-safety legislation and the Health and Safety Executive for Northern Ireland; Scottish, Welsh and Northern Irish training pathways are not treated as equivalent to the English apprenticeship pathway.

Official rules and workplace instructions take precedence. This online module cannot authorise you to light or operate a forge, handle hot stock, use powered equipment, carry out striking work or work without supervision. Practical forging must take place only in an approved workshop, under the level of supervision set by a competent instructor or employer, after local risk assessment, induction and equipment-specific training. If this course conflicts with legislation, an HSE or other competent-authority requirement, a manufacturer instruction, a risk assessment, a method statement or a workplace rule, follow the official or workplace requirement.

Course Metadata

Field	Information
Course title	Producing forged parts by hand forging — Practical project and reflection
Parent module	Producing forged parts by hand forging
Target language	English
Learners	Vocational learners in blacksmithing, artistic metalwork and craft metalwork
Suggested level	Intermediate vocational study after supervised introduction to forge safety and basic hand forging
Selected jurisdiction	United Kingdom — England
Occupational-safety scope	Great Britain law and HSE guidance as applicable in England
Vocational-pathway scope	England
Authority review date	1 September 2026
Practical status	Supervised workshop learning only
Assessment approach	Process evidence, finished work, quality inspection, reflection and transfer
OER status	Course text intended for open educational reuse under CC BY-SA 4.0 subject to MOOCwiki terms; third-party media retain their own licences
Review status	Ready for technical, vocational, safeguarding and workplace-safety expert review

Learning Outcomes

After completing this module, you should be able to explain and demonstrate, within the limits of your authorised training:

Project planning: Interpret a simple drawing or sample and plan a sensible forging sequence.
Material selection: Select known, suitable forgeable stock and explain why unknown or coated scrap is unsuitable for a learner project.
Hand forging: Apply controlled drawing down, tapering, bending and planishing to a simple part under supervision.
Workholding: Select tongs that fit the stock and maintain secure control of the workpiece.
Quality assurance: Inspect dimensions, alignment, surface condition, transitions and function against a stated specification.
Risk control: Recognise major hazards and explain the hierarchy of controls used in a forge.
Sustainability: Reduce unnecessary heats, material waste, fuel use and avoidable rework.
Reflection: Use evidence from the finished part and the process to identify improvements for your next forging task.

Jurisdiction, Duties and Vocational Context

Great Britain Safety Context as Applied in England

The Health and Safety Executive states that employers must identify hazards, assess the likelihood and severity of harm, and eliminate hazards or control risks where elimination is not possible. In a forge, this process applies to hot metal, fire and fuel, work equipment, noise, fumes and dust, manual handling, sharp edges, flying scale, workholding, slips and trips, and any powered or thermal processes used alongside hand forging.

Relevant Great Britain requirements include:

Area	Practical relevance to a forge	Official source
Management of Health and Safety at Work Regulations 1999	Risk assessment is the basis for identifying hazards and selecting proportionate controls.	HSE: Managing risks and risk assessment at work
Provision and Use of Work Equipment Regulations 1998	Work equipment must be suitable, maintained and used by people who have appropriate information, instruction and training.	HSE: Safe use of work equipment L22
Personal Protective Equipment at Work Regulations 1992 as amended in 2022	Suitable PPE is selected from the risk assessment; PPE does not replace higher-level controls.	HSE: PPE at work regulations from 6 April 2022
Manual Handling Operations Regulations 1992	Employers should avoid hazardous manual handling where reasonably practicable, assess what cannot be avoided and reduce the risk of injury.	HSE: Manual handling at work
Control of Noise at Work Regulations 2005	Hammering and forging can create damaging noise. HSE identifies action values for assessment, training and hearing protection.	HSE: Control of Noise at Work Regulations
Control of Substances Hazardous to Health Regulations 2002	Dust, fume, coatings, metalworking substances and some finishing products require assessment and effective exposure control.	HSE: COSHH and engineering workers
Dangerous Substances and Explosive Atmospheres Regulations 2002	Flammable gases such as LPG and other dangerous substances require fire and explosion risks to be assessed and controlled.	HSE: DSEAR

HSE states that the lower daily or weekly noise exposure action value is 80 dB(A), the level at which risk assessment, information and training duties apply; 85 dB(A) is the upper action value associated with hearing protection and hearing-protection zones; and the exposure limit value is 87 dB(A) after taking hearing protection into account. These figures do not mean that every blacksmithing operation has the same noise exposure. The workshop must assess actual exposure and select controls accordingly.

For airborne contaminants, general ventilation is not always enough. HSE guidance on local exhaust ventilation explains that capture at source may be required for fumes, dusts and vapours. If grinding, welding, thermal cutting, coating removal or another contaminant-producing process is added to the project, the separate COSHH controls for that process must be followed.

Northern Ireland is out of scope for the legal detail in this course. HSENI is the lead body for health and safety at work in Northern Ireland under separate Northern Ireland legislation. Do not assume that a Great Britain regulation title, qualification route or enforcement arrangement is automatically equivalent there.

England Vocational Pathway

Skills England currently lists the Blacksmith apprenticeship standard ST0378, version 1.1 as approved for delivery. It is a Level 3 apprenticeship with a typical duration of 48 months. The occupational profile covers designing, shaping and joining metal components by hot forging and other metalworking processes for bespoke, small-batch and heritage work. It explicitly includes safe working, forge and furnace operation, hand tools, quality, technical interpretation, finishing and reflection on work.

This aiMOOC is not the apprenticeship, does not award a qualification and does not certify you as competent to work unsupervised. A portfolio created here may support learning evidence only when accepted by your provider, employer or assessor.

Official vocational references:

No automatic cross-country equivalence is claimed. If you move between England, Scotland, Wales, Northern Ireland or another country, ask the relevant awarding body, training authority or employer how prior learning and qualifications are recognised.

United Kingdom Standards Context

The British Standards Institution is the UK National Standards Body. It develops British Standards and represents UK interests in international and European standardisation. A craft blacksmith does not gain product approval merely by using a recognised steel grade or by producing a visually acceptable forging.

For example, the multi-part BS EN 10025 series covers technical delivery conditions for hot-rolled structural steels. It can help specify material supply, but it does not by itself validate the design, load capacity, installation or fitness for purpose of a hand-forged component.

BSI: The UK's National Standards Body

BSI: BS EN 10025 series

For architectural, structural, guarding, fire-safety, lifting, heritage or other safety-critical work, the competent designer, employer and project documentation must identify the applicable standards, regulations, drawings, tolerances and acceptance criteria. Never treat the learner S-hook in this course as a rated lifting component, personal-safety device or structural fixing.

Core Concepts of Hand Forging

What Hand Forging Does to the Stock

Forging shapes metal mainly by compressive force while the material is at a suitable working temperature. In hand forging, you control where the metal moves by combining heat, hammer direction, anvil geometry, workholding and sequence.

Important practitioner terms include:

Operation	What happens to the metal	Typical evidence in the project
Drawing down	Cross-section is reduced and length increases.	Tapered ends become longer and thinner.
Upsetting	Length is reduced and cross-section increases.	Used in other projects to build mass locally.
Bending	Stock changes direction around an anvil edge, horn, fork or former.	The two ends of the S-hook are curved in opposite directions.
Planishing	Controlled finishing blows refine shape and surface.	Hammer marks become more even and transitions cleaner.
Straightening	Local correction brings a forged part back into the required plane or line.	The finished S-hook lies flat without unwanted twist.

A good forging sequence moves enough material at each heat without forcing cold steel. Repeatedly striking metal after it has fallen below a suitable forging heat can increase effort, distort the surface and contribute to cracking. At the other extreme, overheating can cause excessive scale and, in severe cases, burning. For low-carbon steel, smiths commonly judge an appropriate working heat visually as orange through yellow, but colour depends on lighting, steel composition and perception. Your instructor's material-specific heat range and workshop procedure take precedence over colour descriptions.

The Process Logic

A practical hand-forging project can be understood as a feedback loop:

Design brief	Stock and allowance	Safe setup	Heat	Forge	Inspect	Correct	Record and reflect
What must the part do?	What material and starting size are required?	Are the people, tools and controls ready?	Is the workpiece at a suitable forging heat?	Where should the metal move?	Does the result match the drawing or sample?	What is the smallest controlled correction?	What should change next time?

This loop is more useful than simply counting hammer blows. Professional craft work depends on observation, judgement and controlled correction.

Tools, Materials and Workshop Setup

Anvil and Hand Tools

The labelled image shows common anvil features. The face is the principal flat working surface. The horn supports curved work and progressive bends. The hardy hole receives suitable anvil tools. The pritchel hole is traditionally associated with punching support. Not every anvil has identical geometry, and tools must match the equipment actually provided.

Typical hand-forging equipment for the learner project includes:

Anvil: Securely mounted and at a suitable working height.
Blacksmith hammer: A sound, correctly handled hammer of a mass suited to your control and endurance.
Cross-peen hammer: Useful for directing metal flow when drawing or spreading stock.
Blacksmith tongs: Sized and shaped to grip the section securely.
Wire brush: Used according to workshop procedure to remove loose scale from hot work.
Steel rule and template: Used when the work is cool enough and the inspection method is safe.
Cooling rack: A clearly designated place where hot work can cool without becoming a hidden contact hazard.

A tong jaw should suit the workpiece. Poorly fitting tongs make the stock unstable and increase the chance of dropping or ejecting hot material. If the grip is insecure, stop, place the work safely and select or adjust the correct workholding method under supervision.

Forge and Heating Equipment

A forge supplies controlled heat. Depending on the workshop, this may be a solid-fuel forge or a gas forge. Fuel type changes the hazards and controls. A gas forge can involve LPG or natural gas; a solid-fuel forge produces smoke and combustion products and requires suitable air management and extraction arrangements.

Learners must not improvise burner settings, gas connections, flues, fuel storage or ventilation. Lighting, shutdown, leak checks, fuel handling and emergency isolation follow the workshop method and manufacturer instructions. Under DSEAR, flammable gases and other dangerous substances must be assessed and controlled for fire and explosion risk.

Materials for the Project

For this project, use clean, known, low-carbon steel supplied or approved by the workshop. An instructor may, for example, issue approximately 8 mm round bar for an S-hook exercise, but the drawing and local stock specification control the actual dimensions.

Avoid unknown scrap for learner forging. Scrap can contain unknown alloying elements, coatings, oils, plating, residues or hidden defects. Galvanised, painted, plated or contaminated material can create additional exposure hazards when heated and must not be put in the forge unless a competent person has specified a safe, controlled process.

Keep material identification with the stock. Traceability is part of professional quality practice: you should be able to say what material you used, where it came from within the workshop system and which drawing or job sheet specified it.

Risk Controls for the Practical Project

Hierarchy of Control in the Forge

Risk control starts with avoiding or removing a hazard where possible, then using engineering and organisational controls before relying on PPE. PPE is important, but it is not a substitute for a safe process.

Hazard	Example controls for a supervised learner forge	Learner check
Hot metal and radiant heat	Designated hot-work zones, secure workholding, controlled transfer routes, hot-metal racks, barriers where needed.	Know where hot work may be placed and never assume dark steel is cold.
Flying scale and fragments	Maintained tools, controlled striking, screens where required, suitable eye protection.	Wear the eye protection specified by the risk assessment and keep others out of the strike zone.
Hammering noise	Reduce exposure at source where practicable, maintain tools and anvils, manage duration, provide hearing protection where required.	Follow hearing-protection-zone rules and report hearing-protection problems.
Fume, dust and combustion products	Use clean material, appropriate extraction or ventilation, process-specific LEV and RPE where assessment requires it.	Do not heat coated or unknown material and check that required extraction is operating.
Fire and flammable fuel	Approved forge installation, safe fuel storage, emergency isolation, housekeeping and fire procedure.	Know the stop procedure and emergency route before work starts.
Dropped workpiece	Correct tongs, clear floor, stable stance, adequate space and controlled movement.	Test tong fit on cold stock before heating.
Manual handling	Reduce load size, use mechanical help, share planned lifts and adjust layout.	Ask for help before moving anvils, gas cylinders, stock bundles or other heavy items.
Tool failure	Pre-use inspection, maintained handles, dressed striking faces, suitable equipment.	Remove defective tools from use and report them.
Fatigue and poor body mechanics	Appropriate hammer size, task rotation, rest, suitable working height and instruction in efficient technique.	Choose control over force and report pain, numbness or loss of grip.

PPE and Clothing

PPE must come from the local risk assessment. Typical forge PPE may include safety glasses or goggles with suitable impact protection, hearing protection where required, safety footwear, and suitable protective clothing or an apron.

Do not assume that one glove rule applies to every forge. Gloves can protect against some contact and scale hazards, but unsuitable, wet, loose or poorly fitting gloves can create other risks. Wear only the glove type and on the hand or task specified by the workshop assessment and instruction.

Secure long hair and loose clothing. Remove or control jewellery and other items that may snag. Clothing used near hot work should be suitable for the assessed heat and spark exposure. If you need adapted PPE, a different tool weight, altered anvil height, an assistive device or another reasonable adjustment, raise this before the practical task.

Stop Conditions

Stop the operation, place the work safely if possible and call the instructor if:

The tongs no longer grip the stock securely.
A hammer head, handle, anvil tool or other work equipment appears damaged.
Required extraction, ventilation, guarding or lighting is not working.
You smell gas, suspect a leak or the forge behaves abnormally.
The workpiece begins to burn, sparkle abnormally or shows a serious crack or fold.
A person enters the strike zone unexpectedly.
You lose concentration, feel unwell, become excessively fatigued or cannot maintain control.
The project requires an operation for which you have not been trained or authorised.

Practical Demonstration: Supervised S-Hook

Why an S-Hook Is a Useful Training Project

An S-hook is a compact project that combines stock preparation, two tapers, directional hammer control, bending, symmetry, alignment and finish. It also produces clear evidence for reflection because errors in taper length, curve radius and plane are easy to compare with a template.

Training limitation: The finished S-hook is a demonstration piece for learning and light non-safety-critical display or workshop use only if the instructor approves it. It is not a rated lifting device.

The simplified geometry is:

Tapered tip → first curve → central body → reverse curve → tapered tip

Example Project Brief

Requirement	Example teaching specification
Material	Clean, known low-carbon steel supplied by the workshop
Starting section	Round bar suitable for the learner's authorised equipment, for example about 8 mm diameter
Starting length	As stated on the drawing or job sheet, for example about 200 mm
Operations	Draw down two tapers, bend two opposing curves, correct alignment, planish and inspect
Surface	Controlled hammer finish with loose scale removed according to workshop procedure
Acceptance	Dimensions and tolerances set by the instructor's drawing or sample
Exclusions	No safety-critical lifting, structural fixing or load rating

Step-by-Step Demonstration

Every hot-work step below is carried out only in an approved forge under the required supervision.

Read the drawing and job sheet. Identify the stock, overall proportions, target taper lengths, curve directions, tolerance and surface requirement. Clarify anything ambiguous before heating.
Inspect the station. Check the anvil is secure, the hammer and tongs are serviceable, the tong jaws fit the cold stock, the floor and transfer route are clear, and all required controls and PPE are in place.
Confirm the hot-metal system. Identify where hot stock may be placed, how the forge is loaded and unloaded, and what the local shutdown or emergency procedure requires.
Heat the first end. Under supervision, heat enough length for the taper evenly to the material-specific forging heat specified by the instructor. Avoid forcing a taper from an uneven or inadequate heat.
Begin drawing down. Place the hot end on the anvil face and use controlled blows to reduce section and lengthen the end. Rotate round stock between blows so that the taper develops evenly rather than becoming flat unless a flat section is intended.
Refine the first taper. Work from the transition towards the tip, maintaining a smooth reduction in section. Reheat before the steel becomes too resistant to forge safely.
Repeat the taper at the opposite end. Aim for comparable length, mass distribution and finish. Compare against the teaching sample or cold template only by the approved inspection method.
Form the first curve. Reheat the required zone and progressively bend over the approved anvil feature, fork or former. Keep the central body supported and avoid a sharp accidental kink.
Form the reverse curve. Reheat the opposite end and bend in the opposite direction to create the S form. Work progressively rather than trying to force the full curve in one correction.
Check the plane. At a suitable forging heat, correct unwanted twist so both hooks lie in the intended plane. Use the smallest controlled correction that solves the problem.
Planish and finish the transitions. Use lighter, controlled blows to clean up uneven high spots and make the hammer finish intentional. Do not chase cosmetic marks after the work has fallen below a suitable forging heat.
Place the work in the designated cooling area. Do not leave hot steel on a general bench, floor or shared surface. Do not quench merely to speed handling unless the workshop procedure specifically requires it.
Inspect only when safe to handle. When the instructor confirms the part is cool enough, compare it with the drawing, template or sample. Record dimensions, alignment, surface defects and functional observations.
Reflect before rework. Decide whether a correction is necessary and proportionate. Unnecessary reheating can waste fuel, increase scale and distort parts that already meet the specification.

The video above demonstrates basic forging operations such as drawing down, upsetting and use of the anvil. Treat it as a technique reference only. It does not replace your workshop's Great Britain safety requirements, local risk assessment or instructor directions.

The S-hook video above is a United States practitioner demonstration. Use it to observe sequence, hammer control and shape development, not as United Kingdom legal or qualification guidance. Any difference between the video and your local workshop procedure must be resolved in favour of the local approved procedure.

Common Errors and How to Diagnose Them

Error	Likely cause	Better response
Taper is flat on one side	Round stock was not rotated consistently.	Re-establish even rotation and use controlled blows at a suitable heat.
Taper has abrupt shoulders	Too much reduction was concentrated in one short zone.	Spread deformation through a longer transition and refine progressively.
Hook ends are unequal	Taper length, bend start or bend radius was not compared systematically.	Use reference marks, template checks and planned sequence.
S-hook is twisted	Workpiece orientation changed during bending or correction.	Re-establish the intended plane before making a small hot correction.
Surface has deep uncontrolled dents	Hammer face, angle or blow placement was poorly controlled.	Check tool condition, improve hammer presentation and planish only while the steel is workable.
Excessive scale and pitting	Too many or overly long heats, unsuitable atmosphere or overheating.	Plan each heat, reduce waiting time and follow forge-management instruction.
Crack or lap appears	Material may have been forged too cold, folded over, overheated or may be unsuitable.	Stop and show the defect to the instructor; do not hide it with further hammering.
Hot work is dropped	Poor tong fit, fatigue, obstruction or rushed movement.	Stop the task, review workholding and route, and resume only when the control issue is corrected.

Do not deliberately create dangerous defects by burning steel, forging coated material or working below the approved heat merely to see what happens. Defect study should use instructor-prepared samples, photographs or previously rejected parts.

Quality Criteria

Product Quality

A vocational-quality forging is judged against a specification, not against a vague idea that it "looks handmade". For this project, inspection should cover:

Criterion	Evidence
Material identity	Stock is known and recorded.
Dimensional accuracy	Measurements meet the drawing tolerance set by the instructor.
Symmetry or intended asymmetry	The two ends match the design intent rather than differing accidentally.
Plane and alignment	The part does not show unwanted twist and sits as intended.
Taper quality	Tapers reduce smoothly without abrupt shoulders, thin ragged tips or accidental flats.
Bend quality	Curves are continuous and controlled, without accidental kinks.
Surface integrity	No visible cracks, laps, cold shuts, burning or unacceptable scale pits.
Hammer finish	Tool marks are controlled and consistent with the specified finish.
Edge condition	No unintended sharp burrs or hazardous projections.
Function	The part meets the training brief without being represented as safety rated.
Documentation	Drawing, material, sequence, inspection results and reflection are traceable.

Process Quality

Process quality includes how you worked, not only what you made. An assessor may look for:

Safe preparation and a clear workspace.
Correct selection and use of tongs and hammer.
Efficient heat management without unnecessary reheating.
Controlled body position and hammer technique.
Appropriate decisions about when to stop, reheat, inspect or ask for help.
Care of tools and equipment.
Accurate recording of defects and corrections.
Professional response to feedback.

Sustainability and Resource Efficiency

A sustainable forging process aims to deliver the required function and life with the least reasonable waste, rework and unnecessary energy use.

Material Efficiency

Plan stock length before cutting. Keep known offcuts segregated by material identity so that suitable pieces can be reused safely. Do not treat unidentified scrap as "free material" if its composition, coating or contamination is unknown.

For a learning project, you can calculate a simple material-use indicator:

Material utilisation = finished-part mass ÷ starting-stock mass × 100 percent

The number is useful only when interpreted. Some loss through scale may be normal; large losses may indicate excess allowance, excessive heating or avoidable rework.

Energy and Forge Efficiency

Plan the next operation before putting the stock into the fire. Avoid running a forge at full output during long periods of inactivity. Maintain burners, refractory, air supply, flues and extraction under the workshop maintenance system. Good scheduling can reduce the number of unnecessary heats, but never batch work in a way that overloads a learner's attention or creates uncontrolled hot stock.

Design for Long Life

A durable forged object can be more sustainable than a poorly designed object that is frequently replaced. Consider repairability, replaceable fixings, suitable corrosion protection and whether decorative features increase maintenance unnecessarily. For commissioned work, discuss the expected environment and maintenance plan with the responsible person.

Waste and Finishing

Separate recyclable steel from contaminated waste. Dispose of coatings, solvents, oily materials, abrasive waste and other controlled wastes through the workshop system. Do not wash residues into drains or burn coatings off as an improvised cleaning method.

Inclusive Workshop Practice

Blacksmithing should not be taught as a test of brute strength. Efficient technique, suitable tooling, task design and reasonable adjustments allow a wider range of learners to participate safely.

Inclusive practice can include:

Selecting hammer mass to match control and endurance rather than status.
Adjusting anvil or work height where the workshop design permits.
Using mechanical handling aids for heavy stock and equipment.
Providing PPE in appropriate sizes and compatible combinations.
Giving demonstrations from several viewing positions and using diagrams, captions and written sequences.
Allowing learners to rehearse workholding and movement with cold stock before hot work.
Using paired observer and operator roles so evidence can be recorded without distracting the person forging.
Providing additional time or alternative evidence methods where this does not lower the safety or competence standard.

A learner who cannot safely perform a particular hazardous operation should not be pressured into it. The learning outcome can be revisited through training, adaptation or an alternative evidence method agreed by the competent provider.

Reflection: Turning a Forging into Evidence of Learning

Reflection is not a description of every blow. It is a reasoned comparison between intention, action, evidence and improvement.

Before the Project

Record the drawing reference, material, stock size, planned sequence, main hazards, controls and one quality target. State which operation you expect to be most difficult and why.

During the Project

A designated observer may take photographs or video from outside the hot-work zone if the workshop permits it. The person forging must not handle a phone or camera while controlling hot stock.

Record only meaningful decision points: first taper complete, second taper comparison, first bend, alignment correction, finished part and final inspection.

After the Project

Use the What — So what — Now what structure:

Reflection prompt	Example of useful evidence
What happened?	The second taper was 8 mm longer than the first when compared with the template.
So what does that show?	I spent too many blows near the tip and did not check the transition early enough.
Now what will I change?	I will mark the intended taper length on cold stock and compare both ends after the first heat.

Strong reflection names a specific observation, explains its cause and proposes a realistic change. Weak reflection says only that the work was "good", "bad" or "hard".

Glossary

Term	Practitioner meaning in this module
Anvil	A solid metal support with working surfaces used for forging and forming.
Stock	The starting metal from which the forging is made.
Heat	A period in which the workpiece is brought to a suitable working temperature and forged before reheating.
Drawing down	Reducing cross-section so the metal becomes longer.
Upsetting	Increasing cross-section by shortening the metal.
Taper	A progressive reduction in section towards an end.
Cross-peen	A hammer peen oriented across the handle, used to direct metal flow.
Planishing	Refining shape and surface with controlled finishing blows.
Horn	The tapered anvil projection used for curves and bends.
Hardy hole	The square hole in many anvils used for compatible anvil tools.
Pritchel hole	A round hole in many anvils associated with punching support.
Scale	Iron oxide that forms on the surface of heated steel.
Lap	A folded-over surface defect that is not soundly joined to the underlying metal.
Cold shut	A seam-like defect produced when metal folds together without properly consolidating.
Workholding	The method of securely controlling a workpiece, typically with suitable tongs in this project.
Forgeability	The ability of a material to deform by forging without unacceptable cracking or failure.
Traceability	The ability to connect the finished part with its material, drawing, process and inspection record.
Jig	A device used to guide, locate or repeat a shape or operation.
Template	A reference profile used to compare shape or dimensions.

Media, OER and Verification Notes

The Wikimedia Commons media used in this module were selected because their file names and licences are verifiable on Commons. The embedded files retain their individual licences, including CC0, CC BY-SA and other open licences shown on their file-description pages. The YouTube videos remain under their creators' terms and are embedded as supplementary learning media rather than relicensed as part of the course.

Media used:

Official Sources and Authority Check

The following sources were checked for the jurisdictional and vocational statements in this course. They should be rechecked by an expert reviewer before high-stakes use because legislation, standards and apprenticeship arrangements can change.

Expert Review Checklist

Review area	Expert question
Jurisdiction	Are all legal statements correctly limited to England and Great Britain where appropriate?
Vocational mapping	Does the module align appropriately with current Skills England blacksmith knowledge, skills and behaviours without implying certification?
Forge safety	Are controls compatible with the actual forge, fuels, tools, ventilation and learner supervision level?
Technical accuracy	Are the forging sequence, terminology, defect descriptions and quality criteria consistent with current blacksmith practice?
Inclusion	Are reasonable adjustments and alternative evidence methods practical without reducing competence standards?
Sustainability	Are material, energy, waste and finishing recommendations compatible with the local environmental-management system?
Media	Are all embeds still available and appropriately licensed or linked?
Assessment	Do tasks produce observable evidence of planning, process control, quality judgement and reflection?

Interactive Tasks

Quiz: Test Your Knowledge

What material is most appropriate for the supervised learner S hook described in this module? (Known clean low carbon steel) (!Unknown plated scrap) (!Painted mystery steel) (!Any metal that becomes red)

What should you do first if the tongs no longer grip the hot stock securely? (Stop and make the work safe) (!Grip harder and continue) (!Strike faster before it slips) (!Carry the stock by the cool end)

What is the main effect of drawing down steel? (Reducing section and increasing length) (!Increasing section and reducing length) (!Removing all surface scale) (!Hardening the steel by cooling)

What is planishing used for in this project? (Refining shape and surface) (!Lighting the forge) (!Testing gas pressure) (!Identifying unknown scrap)

Which statement best describes PPE in forge risk control? (It supports higher level controls) (!It replaces risk assessment) (!It makes supervision unnecessary) (!It removes every hot metal hazard)

Why should unknown coated scrap not be used for the learner forging project? (It may contain unknown materials and hazardous coatings) (!It is always too soft) (!It cannot become hot) (!It is always stainless steel)

What should determine whether a finished forging is acceptable? (The stated drawing and quality criteria) (!The number of hammer blows) (!The colour of the anvil) (!The learner finishing first)

Which action supports sustainable forge practice? (Planning each heat to reduce unnecessary reheating) (!Running the forge at full output while idle) (!Discarding every known offcut) (!Burning coatings off scrap)

What does traceability mean in this project? (Linking the part to its material process and inspection record) (!Making every hook identical by eye) (!Using only recycled material) (!Working without a drawing)

What is the status of this aiMOOC in relation to professional competence? (It supports learning but does not certify unsupervised competence) (!It automatically awards a Level Three qualification) (!It replaces workplace induction) (!It authorises independent forge operation)

Memory Game

Drawing down	Reducing cross-section so the stock becomes longer
Upsetting	Increasing cross-section by shortening the stock
Planishing	Refining shape and surface with controlled finishing blows
Scale	Oxide layer formed on heated steel
Cold shut	Seam defect caused by folded metal that has not consolidated soundly
Traceability	Connection between the finished part and its material process and inspection record

Drag and Drop

Match the correct terms.	Topic
Known low carbon steel	Specified learner stock
Matched tongs	Secure workholding
Anvil face	Primary flat forging surface
Forge	Controlled heating source
Cooling rack	Designated location for hot work to cool

...

Crossword Puzzle

Anvil	Which solid support provides the principal working surface for hand forging?
Tongs	Which hand tool grips and controls hot stock?
Taper	What do you call a progressive reduction in cross-section towards an end?
Scale	What oxide layer forms on heated steel?
Planishing	What finishing operation uses controlled blows to refine shape and surface?
Traceability	What quality principle links a part to its material process and inspection record?

LearningApps

Cloze Text

A learner forging project should use

rather than unidentified scrap. Before hot work begins, you should confirm that your

grip the cold stock securely. The operation that reduces cross-section and increases length is called

. A smooth reduction towards the end of the stock is a

. The oxide layer that forms on hot steel is called

. Controlled finishing blows used to refine the surface are known as

. If the workpiece becomes too cool to forge safely, you should

it according to workshop procedure. A finished part should be compared with a drawing, sample or

. The ability to link a component to its material and records is called

. Reducing unnecessary heats can improve both efficiency and

. A useful reflection identifies evidence, explains the cause and proposes an

. Practical forge work in this module must remain under the required

.

Open-Ended Tasks

Easy

Forge risk map: Create an annotated plan of your training forge showing hot-work zones, safe transfer routes, cooling areas, emergency exits and locations where learners must not stand; complete the task without operating equipment.
Tool identification portfolio: Photograph or sketch the approved hammer, tongs, anvil features and cooling area, then label each item with its function and one pre-use check.
Forging process storyboard: Use an instructor demonstration or the embedded videos to create an eight-frame storyboard showing stock, first taper, second taper, first bend, reverse bend, alignment, finish and inspection.
Quality reflection: Compare two instructor-provided S-hook samples and write a short explanation of which better meets the stated criteria for taper, plane, bend continuity, surface and finish.

Standard

Supervised S-hook project: Under direct workshop supervision, produce one S-hook to an instructor-issued drawing and submit the drawing, material record, process plan, finished part, inspection results and reflection.
Heat observation log: Observe an approved forging demonstration and record how the practitioner decides when to forge, reheat, stop or correct the work without attempting any unauthorised hot work yourself.
Blacksmith interview: Interview a practising blacksmith, instructor or artistic metalworker about quality, repeatability, safety culture, material choice and sustainability, then compare the answers with this module.
Material efficiency audit: Measure the issued stock and finished part for an approved project, calculate material utilisation, identify sources of loss and propose one realistic reduction in waste or rework.

Advanced

Repeatability challenge: Under the required supervision, make a small approved batch of matching non-safety-critical forged components to one drawing, measure variation and explain which process controls improved consistency.
Defect investigation: Analyse instructor-provided rejected forgings, photographs or samples for laps, cracks, twist, poor tapers and excessive scale, then identify likely causes without deliberately creating hazardous defects.
Workshop improvement proposal: Review one forge workflow against current HSE principles and local procedures, then present a risk-reduction proposal that prioritises elimination, engineering and organisational controls before PPE.
Expert review video: Produce a short narrated portfolio video showing the cooled finished work, drawing, measurements, process evidence and reflection; obtain feedback from a qualified instructor or practitioner and record what you would change next time.

Learning Assessment

Process planning assessment: Given a drawing for a simple forged component, justify the stock choice, operation sequence, workholding and points at which you would inspect or reheat.
Risk control assessment: Analyse a forge scenario containing hot metal, poor tong fit, excessive noise and a coated workpiece, then prioritise controls using the hierarchy of control and explain why PPE alone is insufficient.
Quality diagnosis assessment: Inspect a cooled forged sample and distinguish between acceptable handmade variation and defects that violate the stated drawing or surface-integrity criteria.
Material transfer assessment: Explain how your forging plan would change if the stock section, alloy, component size or required finish changed, and identify what information you would need before proceeding.
Sustainability assessment: Compare two plausible forging sequences and justify which is likely to use less material and energy without increasing risk or reducing quality.
Reflection assessment: Use measurements and photographs from a completed project to identify one technical success, one weakness, one likely cause and one specific improvement.
Professional judgement assessment: Explain why a visually sound learner S-hook cannot be presented as a rated lifting or structural component without the required design, material, standards and verification evidence.

Evidence of Learning

Important evidence should show what you know, what you can do under authorised supervision, what you produced and how well you can transfer learning.

Evidence type	Examples
Knowledge	Correct use of forging terminology, material behaviour, heat judgement principles, risk-control hierarchy, quality criteria and jurisdiction boundaries.
Practical skill	Controlled tapering, bending, planishing, workholding, alignment and inspection demonstrated under the required supervision.
Planning	Drawing interpretation, stock choice, forging sequence, safe setup and inspection points.
Product	A cooled, non-safety-critical forged component that meets the instructor's stated specification.
Quality record	Measurements, defect observations, material identification and comparison with a template or drawing.
Sustainability evidence	Stock allowance reasoning, material-use calculation, reduced unnecessary heats and responsible waste handling.
Reflection	Evidence-based explanation of success, error cause, corrective decision and next-step improvement.
Transfer	Ability to adapt the same reasoning to a different stock section, drawing, material or forge task while recognising when new instruction is required.
Professional behaviour	Safe communication, correct stopping decisions, care of tools, response to feedback and respect for workplace rules.

OERs on the Topic

The English Wikipedia article on forging provides additional openly accessible background on forging processes and terminology. It is supplementary and does not replace current HSE guidance, vocational standards or workplace procedures.