Die Druckversion wird nicht mehr unterstützt und kann Darstellungsfehler aufweisen. Bitte aktualisiere deine Browser-Lesezeichen und verwende stattdessen die Standard-Druckfunktion des Browsers.

Producing forged parts by machine forging — Safe practice

Introduction

Producing forged parts by machine forging — Safe practice is the safety module of Producing forged parts by machine forging. It is designed for vocational learners in Blacksmithing, Artistic metalwork, forge work and related metalworking occupations.

This course does not authorise you to operate a power hammer, forging press, furnace or other hazardous equipment. Machine forging must be taught and practised only after workplace induction, machine-specific training and authorisation, with the level of supervision required by the employer, training provider and risk assessment. Manufacturer instructions, current official rules, the workplace risk assessment, the safe system of work and the supervisor's instructions always take precedence over this aiMOOC.

MOOCwiki metadata	Value
Exact title	Producing forged parts by machine forging — Safe practice
Parent unit	Producing forged parts by machine forging
Module	Safe practice
Target group	Vocational learners in blacksmithing and artistic metalwork
Target language	English
Chosen jurisdiction	United Kingdom
Legal scope used for workplace safety	Great Britain, meaning England, Scotland and Wales, under Health and Safety Executive guidance
Training-pathway reference	England only, using the Skills England Blacksmith apprenticeship standard
Review status	Open educational resource draft ready for expert review
Source-check date	1 September 2026
Course-text licence	Creative Commons Attribution-ShareAlike 4.0 unless a page notice states otherwise; embedded third-party media retain their own licences

Learning outcomes

By the end of this module, you should be able to explain the main hazards of machine forging, recognise common control measures, prepare for a supervised forging task, describe a safe work sequence, respond correctly to abnormal conditions, assess the quality of a forged part and connect safe practice with efficient and sustainable production.

The photograph above shows an artist blacksmith using a power hammer. Use it as a hazard-recognition image: notice the hot workpiece, the moving ram and dies, the operator's position, the need for secure workholding, the potential ejection path and the workshop environment. The image is from Finland and is included as a craft illustration, not as evidence of UK legal compliance.

Jurisdiction, law and official precedence

United Kingdom choice and scope

This aiMOOC chooses the United Kingdom as the jurisdiction. Because occupational-safety law and vocational systems are not identical across all four UK nations, the scope is labelled precisely:

Great Britain workplace safety: The legal and HSE guidance references in this module apply to Great Britain, meaning England, Scotland and Wales.
England vocational training: The apprenticeship reference applies to England only.
Northern Ireland: This module does not claim that Great Britain duties or the England apprenticeship pathway are automatically equivalent in Northern Ireland.

Do not transfer this course to another country or UK nation as if qualifications, duties, certification or job titles were automatically equivalent.

Great Britain: work equipment and risk assessment

The Provision and Use of Work Equipment Regulations 1998, commonly called PUWER, place duties on people and organisations that own, operate or control work equipment. HSE guidance states that equipment for work must be suitable for its intended use, maintained in a safe condition, inspected where required, used by people who have received adequate information, instruction and training, and provided with suitable protective devices, controls, isolation arrangements, markings and warnings where appropriate.

HSE's risk-management sequence is to identify hazards, assess risks, control risks, record significant findings where required and review controls. For machine forging, that means looking beyond the hot metal itself and considering moving machinery, line-of-fire hazards, ejection, noise, vibration, heat, manual handling, fumes, slips, trips, maintenance and the behaviour of people around the machine.

Official references for expert checking:

The HSE animation above explains risk assessment and management. Apply its logic before thinking about production speed.

Great Britain: health hazards and PPE

Machine forging can expose workers to high noise, hand-arm vibration from associated tools, radiant heat, hot surfaces, manual-handling strain, dusts, fumes and substances used in lubrication, cleaning, coating or maintenance. Relevant official guidance includes:

HSE lists noise exposure action values of 80 dB A-weighted for the lower daily or weekly action value and 85 dB A-weighted for the upper daily or weekly action value, with an exposure limit value of 87 dB A-weighted after taking hearing protection into account. HSE also lists a hand-arm vibration exposure action value of 2.5 metres per second squared A8 and an exposure limit value of 5 metres per second squared A8. These are employer risk-management values, not targets for a learner to measure or manage alone.

Hearing protection may be required, but PPE is not a substitute for controlling noise at source, isolating noisy processes, maintaining equipment or reducing exposure time according to the workplace assessment.

This UK safety-sign image illustrates a face-protection requirement. A sign does not decide the correct PPE by itself. Eye and face protection must be selected from the actual risk assessment, compatible with other PPE and suitable for the wearer.

England: vocational-training reference

For England only, Skills England currently lists the Blacksmith apprenticeship standard ST0378, version 1.1, approved for delivery at Level 3 with a typical duration of 48 months. The occupational profile covers hot forging and other metalworking for bespoke, small-batch, artistic, architectural and heritage work. Its knowledge, skills and behaviours include forge health and safety, hazard recognition, risk assessment, PPE, fixed forge equipment such as power hammers and presses, hot forging by hand and machine, equipment maintenance and a positive safety culture.

Official reference: Skills England: Blacksmith ST0378 v1.1.

This aiMOOC is not the apprenticeship, does not award a qualification and does not certify competence. Training pathways in Scotland, Wales and Northern Ireland must be checked separately.

British Standards: use only when applicable

BSI lists BS EN 14673:2006+A1:2010, Safety of machinery — Safety requirements for hydraulically powered open die hot forging presses for the forging of steel and non-ferrous metals. It is a machine-specific standard for hydraulically powered open-die hot-forging presses and associated handling equipment within its scope.

Official BSI project record: BS EN 14673:2006+A1:2010.

BSI also publishes dimensional-tolerance standards for steel die forgings, including BS EN 10243-1 for drop and vertical press forgings and BS EN 10243-2 for upset forgings on horizontal forging machines. A drawing, purchase specification, customer requirement or workplace quality system may invoke these standards.

Important distinction: HSE's specific Approved Code of Practice for power presses, L112, is for power presses working on cold metal. Do not assume that a cold-metal power-press rule or standard automatically applies to a hot-forging hammer or press. The employer, competent machinery-safety specialist and applicable machine documentation must determine the correct legal and standards framework.

Core concepts of safe machine forging

What machine forging means

Machine forging uses powered equipment to deform heated metal. In artistic and small-batch blacksmithing, common machines include:

Machine	Practitioner description	Main safety focus
Power hammer	A powered hammer with a reciprocating ram or tup carrying an upper die that delivers repeated blows to work supported on a lower die	Moving ram and dies, impact, ejection, tooling security, noise, vibration and operator position
Pneumatic or air hammer	A power hammer in which compressed air drives or controls the ram	Stored pneumatic energy, controls, impact zone and maintenance isolation
Mechanical power hammer	A hammer driven through mechanical linkages, springs, belts or related mechanisms	Guards, rotating and reciprocating parts, control response and mechanical stored energy
Hydraulic forging press	A press that applies comparatively slower, sustained force through hydraulically driven tooling	Crush zone, hydraulic pressure, tooling alignment, ejection, stored pressure and isolation

A hydraulic forging press applies force differently from an impact hammer. Do not treat one machine as a slower or faster version of the other; the control system, tooling, hazards and safe operating procedure differ.

This preserved drop-forging hammer in Sheffield is useful for recognising the scale and mass of forging machinery. Historic machinery may lack safeguards expected on modern work equipment, so preservation value must never be confused with permission for workplace use.

Forging operations and material flow

Common machine-forging operations include drawing out, upsetting, fullering, setting down, Edging, Swaging and controlled bending. The goal is to move material deliberately while maintaining the required temperature, section, alignment and surface quality.

A power hammer can move metal very quickly. That productivity increases the consequences of poor positioning, insecure tongs, loose tooling or a moment of inattention. Safe practice therefore depends on preparation, predictable machine behaviour and disciplined communication.

A simple process-safety diagram

Stage	Safe decision	Do not proceed when
Plan	Confirm drawing, material, sequence, risk controls and supervision	Job or controls are unclear
Prepare	Check machine status, tooling, guards, controls, workholding and work area	Defect, missing guard or insecure tooling is found
Heat	Use the specified material and workplace heating procedure	Material identity or acceptable forging range is unknown
Forge	Keep secure control of the workpiece and remain outside avoidable line-of-fire positions	Grip, visibility, machine response or coordination is lost
Reheat	Return the workpiece for controlled reheating when required	The workpiece has cooled below the approved working range
Inspect	Check dimensions, straightness, surface and defects	Cracks, laps, gross distortion or other rejectable defects are present
Finish	Place hot work in the designated safe area and record or mark status	Others could mistake the workpiece for cold material

Hazards and risk controls

Control the risk before relying on PPE

A good control strategy starts by asking whether the hazard can be eliminated or reduced through design, machine choice, guarding, automation, handling aids, layout, maintenance or changed work methods. Administrative controls such as training, exclusion zones and safe systems of work support those measures. PPE provides a final layer where risk remains.

Never remove, bridge, defeat or hold open a guard, interlock, trip device or other safety function to make a forging task easier.

Hazard-control matrix

Hazard	Authentic forge example	Preferred control approach	Learner behaviour
Crushing and trapping	Hand, tongs or stock enters the closing space between dies	Effective safeguarding, safe control system, sufficient workholding length, safe positioning and machine-specific training	Keep body parts out of the danger zone and stop if control of the workpiece is lost
Impact and ejection	Hot scale, a workpiece, broken tool or loose die is projected	Correct tooling, secure fit, inspections, exclusion zones, barriers where required and suitable eye or face protection	Do not stand in an avoidable ejection path and report loose or damaged tooling
Unexpected movement	Hammer or press moves during adjustment, clearing or maintenance	Safe stop, energy isolation and control of stored mechanical, hydraulic, pneumatic, electrical and gravitational energy	Never reach into machinery to clear a fault; call the authorised person
Hot metal and radiant heat	Workpiece, scale, dies and nearby surfaces remain dangerously hot	Designated hot-work zones, handling tools, heat-resistant arrangements where assessed, screens and housekeeping	Treat unidentified metal near the forge as hot until confirmed otherwise
Noise	Repeated hammer blows create high impulsive noise	Quieter equipment where practicable, maintenance, acoustic control, separation, exposure management and hearing protection where required	Wear assigned hearing protection correctly and report changes in machine sound
Vibration	Repeated exposure from associated grinders, scalers or hand tools	Low-vibration methods or tools, maintenance, exposure control and health surveillance where required	Follow trigger-time or work-rotation instructions and report equipment defects
Manual handling	Moving long bar, heavy billets, dies or tooling	Avoid unnecessary handling, use mechanical aids, plan routes and assess awkward or hot loads	Do not improvise a lift; ask for the specified aid or team method
Fumes and dust	Scale, combustion products, grinding dust, lubricant smoke or coating decomposition	Eliminate unsuitable coatings, use appropriate ventilation or local extraction, COSHH assessment and suitable processes	Never heat unidentified coated, plated, painted or contaminated material
Heat stress	Sustained work near forge or furnace in high ambient heat	Ventilation, work-rest arrangements, hydration access, acclimatisation and workload management	Follow heat-stress controls and report symptoms immediately
Slips and trips	Scale, offcuts, hoses or tongs obstruct the operating area	Good layout, designated storage, regular housekeeping and clear access to stops and exits	Keep the working zone and escape route clear

Line of fire

The line of fire is any position where you could be struck, crushed, trapped, burned or hit by ejected material if the workpiece, tooling or machine moves unexpectedly.

For a power hammer or press, think of three zones:

Zone	Meaning	Safe-practice question
Die zone	The space where powered tooling closes on the work	Are hands and body parts completely outside it?
Ejection zone	Paths along which scale, fragments, tooling or the workpiece could travel	Is your body outside avoidable projection paths?
Handling zone	The area needed to move long or hot stock without striking another person	Is the route clear and is communication agreed?

Tools, workholding and materials

Workholding tools

Machine-forging tongs must fit the stock securely. A poor fit can let the work twist or escape under a blow or press stroke. The correct tong type depends on the section, length, operation and machine. Rings, reins and jaws must be sound and free from defects that could cause loss of control.

This photograph shows blacksmithing tongs as a tool category. In machine forging, the critical point is not appearance but correct fit, condition and suitability for the specific workpiece and operation.

Never use a damaged tong, makeshift extension or hand position that brings your body closer to the die zone than the approved method.

Dies and tooling

Common machine-forging tooling includes flat dies, drawing dies, fullering tools, swages, set tools and job-specific tooling. Before use, the responsible trained person checks that tooling is the correct type, correctly fitted, aligned, secure and free from damage that could create a fracture or ejection hazard.

Tool changes and adjustments are not routine learner actions unless the workplace has trained and authorised you for them. Where a task requires access to a danger zone, follow the machine-specific isolation procedure and control all relevant stored energy.

Material identification

A safe forging job begins with known material. The grade, section and condition affect the acceptable heating and forging process. Painted, plated, galvanised, oily or otherwise contaminated stock can create harmful fumes when heated. Do not heat unidentified coated material.

For vocational exercises, trainers often choose a known low-carbon steel because it is forgiving for basic hot-forging practice. Even then, follow the material specification and local heat-treatment or cooling instructions rather than guessing from colour alone.

Safe workshop preparation

Pre-use readiness check

Before any supervised machine-forging exercise, confirm the following with your trainer or supervisor:

Job specification: The drawing, dimensions, material and intended forging sequence are understood.
Authorisation: The operator is trained and authorised for the specific machine and task.
Risk controls: The current risk assessment and safe system of work are available and understood.
Machine condition: Required inspection and maintenance status is current and no defect tag or prohibition applies.
Safeguards: Guards, protective devices, emergency-stop arrangements and controls are present and appear serviceable.
Tooling: Dies and tooling are correct, secure and suitable for the operation.
Tongs: The workholding tool fits the cold stock securely before heating.
Work area: Floor, handling route, hot-metal area, exits and access to controls are clear.
PPE: Assigned eye or face protection, hearing protection, clothing, footwear and any other required PPE fit correctly and are compatible.
Communication: Everyone involved knows who controls the machine, who handles the work and what stop signal will be used.

A learner should never "test whether it will be all right" by running defective or incompletely guarded equipment.

Step-by-step supervised demonstration

Demonstration scope

This demonstration is a trainer-led observation and supervised practice sequence for drawing out a known mild-steel rectangular bar using flat dies on a power hammer. It teaches decision points rather than machine settings. It is not a substitute for the manufacturer's manual, workplace procedure or hands-on instruction.

No learner should perform this exercise unsupervised.

Demonstration sequence

Brief the task: The trainer identifies the machine, workpiece, drawing requirement, likely hazards, line-of-fire positions, stop signal and emergency arrangements.
Confirm machine readiness: The authorised person confirms inspection status, guards, dies, controls, emergency stop, lubrication or other pre-use requirements specified by the manufacturer and workplace.
Check workholding cold: The selected tongs are tested on the cold stock so the grip is secure before the piece is heated.
Prepare the work area: The hot-metal route, machine approach and completed-work area are cleared; bystanders remain outside the defined operating zone.
Heat to the approved forging range: The trainer follows the material-specific and furnace-specific procedure; the learner does not infer a temperature solely from colour.
Take the agreed operating position: The work is held so the hands and body remain outside the die zone and avoidable ejection paths, with enough control length for the operation.
Present the work squarely: The trainer demonstrates placing the work flat and stable between the dies before applying controlled machine action according to the machine procedure.
Forge progressively: Material is moved in short, controlled stages; orientation is checked between stages so the section stays aligned rather than allowing twist or excessive local reduction.
Withdraw before control is lost: If grip, visibility, machine response, coordination or workpiece stability becomes uncertain, the machine is stopped and the work is withdrawn safely.
Reheat when required: The workpiece returns to the forge before it falls below the approved forging range; forcing cold material can damage the work and tooling.
Inspect between heats: The trainer and learner check straightness, section, surface, emerging cracks, laps, excessive scale and progress toward the drawing.
Finish and mark hot status: The completed hot work is placed only in the designated hot-metal area and identified according to workshop practice.
Record and review: Dimensions, defects, deviations, near misses and learning points are recorded before the next piece is started.

United States craft demonstration: The video above shows a Chambersburg power hammer in a blacksmithing context. Use it to observe machine scale, repeated impact, workholding and operator positioning. It is not UK compliance guidance and must not be copied in place of your own machine's instructions or workplace controls.

Common errors and safe corrections

Common error	Why it matters	Safe correction
Poor tong fit	The work can rotate, drop or be ejected	Stop, cool or position the work safely as instructed, and use correctly fitted tongs
Reaching into the die area	Crushing injury can occur in a fraction of a second	Stop and use the approved method; isolate energy if access to a danger zone is required
Chasing production speed	Rapid cycles reduce time for inspection and can conceal loss of control	Work to the safe sequence and quality standard, not maximum possible output
Forging too cold	Increases force, can promote cracking and damages quality or tooling	Reheat according to the approved material procedure
Overheating	Can cause excessive scale, surface damage or deterioration of the steel	Follow controlled heating practice and reject material that exceeds the permitted condition
Insecure die or tool	Tooling may move or be projected	Do not run the machine; report and have an authorised competent person correct it
Standing in an ejection path	Scale, fragments or the workpiece can strike the operator	Reposition according to the safe operating zone
Defeating a guard or interlock	Removes a designed control and can expose dangerous moving parts	Stop work and restore the machine to its approved safeguarded condition
Poor housekeeping	Creates trips, blocked escape routes and unsafe hot-metal contact	Store tongs, offcuts and stock in designated places and clear scale as the procedure requires
Treating PPE as the main solution	PPE cannot prevent many crushing, trapping or ejection events	Prioritise guarding, machine design, isolation, handling aids, layout and safe systems of work

Quality criteria for a forged part

Safe work and quality work support each other. A well-controlled forging process should produce repeatable material flow without creating avoidable defects.

Typical quality checks include:

Criterion	What to check
Dimensions	Length, width, thickness, diameter, shoulder position and other drawing dimensions are within the specified tolerance
Straightness and alignment	The part is not twisted, bowed or offset beyond the drawing requirement
Section control	Cross-sections change progressively and match the intended geometry without unintended thin spots
Surface	No unacceptable laps, folds, deep die marks, tears, excessive scale damage or contamination
Cracks	No visible cracking; suspected defects are quarantined and assessed rather than ground away without authorisation
Corners and radii	Transitions are appropriate for the drawing and process and are not sharp stress raisers where radii are specified
Material identity	The forged part remains traceable to the correct material batch or stock identification where required
Process record	Heat, operation, inspection or non-conformance records are completed when the workplace quality system requires them

For steel die forgings, BS EN 10243-1 and BS EN 10243-2 may be relevant when the drawing, customer specification or quality system invokes them. Do not apply a generic tolerance standard where the contract or drawing states a different requirement.

Sustainability and resource efficiency

Safe forging can also reduce environmental impact and cost.

Correct stock size: Start with the calculated material allowance so excess metal is not heated and discarded unnecessarily.
Efficient heating: Plan work so the forge or furnace is not kept at high output without productive use, while never compromising safe heating practice.
Avoid overheating: Excessive heat increases scale loss, energy use and reject risk.
Tool maintenance: Sound dies, tongs and equipment improve control and reduce scrap, but maintenance must be planned and carried out safely.
Material segregation: Keep alloy grades and clean scrap separated so material can be reused or recycled correctly.
Reduce rework: Check dimensions between heats so errors are corrected early rather than after excessive forging.
Control emissions: Use the specified fuel, ventilation and extraction arrangements; do not burn coatings or contaminants from scrap.
Extend product life: Durable, repairable forged components and properly protected artistic metalwork can reduce replacement demand.

Sustainability never justifies bypassing extraction, guards, PPE, cooling time, maintenance isolation or any other safety control.

Abnormal conditions and emergency response

When to stop

Stop the operation immediately if you notice a missing or damaged guard, unexpected machine movement, abnormal noise, loose tooling, fluid leak, loss of tong grip, damaged workpiece, obstructed control, unsafe person in the operating zone, loss of ventilation, fire risk or any condition outside the approved procedure.

Jam, fault or trapped workpiece

Do not reach into the die area or improvise a lever while the machine can move. Use the normal stop or emergency-stop function as appropriate, warn others and call the authorised person. Where access is required, the machine must be isolated from all relevant energy sources and stored energy must be controlled under the workplace isolation procedure before intervention.

Maintenance is a separate task requiring suitable planning, competence, tools and authorisation.

Hot-metal incident

If hot metal is dropped, do not instinctively grab it. Warn others, keep people clear and use the designated hot-metal recovery method after the situation is controlled. Follow the site's first-aid and burn procedures for any injury.

Fire or gas concern

Do not investigate fuel leaks or fire conditions beyond your training. Stop work if safe to do so, raise the alarm and follow the site emergency plan. Only trained and authorised people should isolate fuel systems or fight a fire where the emergency procedure permits.

Inclusive safe practice

Safe vocational training must work for different bodies, communication styles and access needs without lowering the standard of control.

A trainer should ensure that instructions are clear, demonstrations are visible, stop signals are unambiguous, PPE fits the individual, work height and handling methods are suitable, and reasonable adjustments are planned through the training provider or employer. Visual signals can support people who cannot reliably hear spoken instructions in a noisy forge, but any communication system must be agreed before the machine starts.

No learner should be pressured to continue when they cannot see, hear, hold, reach or control the task safely. An adjustment is acceptable only if it preserves required guarding, exclusion distances, machine control and emergency arrangements.

Media for observation and discussion

This hand-forging image is useful for comparing manual and machine work. The essential principles of controlled heat, workholding and material flow remain relevant, but a powered hammer adds machine movement, higher energy and additional safeguarding needs.

This industrial forging image shows a much larger open-die process. Use it to discuss scale, radiant heat, handling equipment and exclusion zones. Do not infer that controls appropriate to heavy industry are identical to those for a small artist-blacksmithing workshop.

Glossary

Term	Meaning in this module
Power hammer	A powered forging hammer with a reciprocating ram or tup that delivers repeated blows
Forging press	A machine that deforms metal through pressing force rather than repeated hammer impact
Ram	The moving machine member that carries or drives the upper tooling
Tup	A practitioner term often used for the moving hammer mass or ram on some forging hammers
Die	A shaped or flat working surface that contacts the hot metal
Flat dies	Upper and lower tooling with flat working faces used for general forging
Drawing out	Reducing cross-section while increasing length
Upsetting	Increasing cross-section by shortening material
Fullering	Localising material flow with rounded tooling
Swaging	Finishing or forming a workpiece to a defined section with shaped tooling
Scale	Oxide that forms on hot metal surfaces and may detach during forging
Forging heat	The material condition within the approved temperature range for a particular forging operation
Line of fire	A position where a person could be struck, crushed, trapped or hit by ejected material
Guard	A physical barrier intended to prevent or reduce access to a hazardous machine area
Interlock	A safety function that links machine operation to the state of a guard or protective device
Isolation	Securing equipment against energisation or movement by controlling relevant energy sources
Stored energy	Energy retained in springs, raised masses, pressure systems, rotating parts or other mechanisms after normal power is removed
Safe system of work	A documented or formally established method for carrying out a task with defined controls and responsibilities
Competent person	A person with the knowledge, training, experience and other qualities needed for the safety task they are assigned
Non-conformance	A part, process or record that does not meet the specified requirement

Reflection

Consider these questions before you move to the interactive tasks:

Safety before speed: Which part of machine forging is most likely to tempt an inexperienced operator to rush, and how would you redesign the work so speed is not rewarded?
Line of fire reflection: Where could a workpiece, scale or tool travel if control were lost on the machine you know?
Human factors: What communication failure could occur in a noisy forge, and what agreed signal would prevent it?
Quality and safety: How can a dimensional error indicate a handling or process-control problem rather than only a measurement problem?
Sustainability reflection: Which change could reduce both energy use and reject rate without increasing risk?

Sources and expert-review notes

The following sources were checked for this edition. Reviewers should re-check them whenever law, guidance, standards or training requirements change:

Wikimedia Commons images are embedded by exact file name and retain the licences stated on their file-description pages. The HSE video is an official risk-management resource. The United States craft video is included only for observation and comparison of machine behaviour, not as a source of UK legal requirements.

Expert-review prompt: A qualified blacksmithing educator, machinery-safety specialist or workshop supervisor should check the machine terminology, local controls, PPE selection, emergency arrangements, material practice and applicability of cited standards before this module is used for practical training.

Interactive Tasks

Quiz: Test Your Knowledge

What must be in place before a learner operates a forging machine? (Machine specific training authorisation and required supervision) (!A personal preference for the machine) (!A faster production target) (!Permission from another learner)

What is a line of fire hazard in machine forging? (A path where moving or ejected material could strike a person) (!A painted line used only for decoration) (!The hottest part of a furnace wall) (!A line marked on a finished drawing)

What is the main purpose of correctly fitted forging tongs? (To hold and control the workpiece securely) (!To increase the machine motor speed) (!To replace machine guarding) (!To measure the finished tolerance)

What should you do if a required guard is missing? (Stop and report the condition before use) (!Run one test piece carefully) (!Hold the guard area closed by hand) (!Ask a learner to watch the hazard)

What should happen when steel falls below the approved forging range? (Return it for controlled reheating) (!Use more force to finish quickly) (!Quench it and continue immediately) (!Strike faster before it cools further)

Which control is normally stronger than relying on PPE alone? (Effective machine guarding) (!Working faster) (!Standing closer) (!Using a heavier billet)

What is the correct response to loose or damaged die tooling? (Do not use the machine until the defect is corrected) (!Tighten it while the machine cycles) (!Use lighter blows and continue) (!Hold the tool with another pair of tongs)

What must happen before someone reaches into a danger zone to clear a jam? (The machine must be safely isolated under the workplace procedure) (!The operator should wear thicker gloves) (!The workpiece should be rotated) (!The production counter should be reset)

Which sign most strongly suggests a forged part needs rejection or formal review? (A visible crack or lap) (!A recorded inspection result) (!A correct material identity) (!A dimension within tolerance)

What has priority over this aiMOOC during practical work? (Current official rules and workplace instructions) (!Advice from an unrelated video) (!A shortcut learned from another learner) (!The desire to finish the part quickly)

Memory Game

Power hammer	Powered forging machine that delivers repeated blows
Forging press	Machine that deforms metal through pressing force
Ram	Moving member carrying or driving upper tooling
Scale	Oxide that forms on hot metal
Isolation	Securing machinery against hazardous energisation or movement
Fullering	Localising material flow with rounded tooling
Non-conformance	Failure to meet a specified requirement

Drag and Drop

Match the correct terms.	Topic
Guarding	Preventing access to hazardous machine parts
Emergency stop	Stopping machinery rapidly in an emergency
Isolation	Controlling energy before hazardous intervention
Tongs	Securing and controlling a hot workpiece
Hearing protection	Reducing residual noise exposure when required

...

Crossword Puzzle

Guarding	What physical control helps prevent access to hazardous machine parts?
Isolation	What process secures machinery against hazardous energisation before intervention?
Tongs	What hand tool is used to hold and control hot stock?
Scale	What oxide layer forms on hot steel and may detach during forging?
Forging	What process shapes metal by compressive deformation?
Hammer	What machine type delivers repeated impact blows to hot metal?

LearningApps

Cloze Text

Before a learner operates a forging machine, the learner must have machine-specific

. A workpiece should be held with correctly fitted

. The space in which powered tooling closes is a dangerous

. If a required guard is missing, you must

. Work that has cooled below the approved forging range should be

. Before hazardous intervention in a jammed machine, authorised staff must carry out safe

. Excess oxide that forms on hot steel is called

. A visible crack or lap is a potential quality

. Official rules and workplace instructions always take

.

Open-Ended Tasks

Easy

Forge hazard photo annotation: Mark at least five hazards or control points on a printed or digital copy of a machine-forging image and explain each label without operating any equipment.
Cold material-flow model: Use modelling clay between wooden blocks to demonstrate drawing out and upsetting, then sketch how the section changes without using a forge or powered machine.
PPE decision poster: Create an English poster showing which risks require engineering controls first and where eye, face, hearing, clothing or footwear protection may form an additional layer.
Safe sequence storyboard: Produce a twelve-frame storyboard showing the supervised forging sequence from briefing to final inspection, including at least three stop-work decisions.

Standard

Workshop observation log: During an instructor-led workshop visit, observe a power hammer or forging press from the designated safe area and record guarding, workholding, communication, housekeeping and line-of-fire controls.
Supervisor interview on forge safety: Interview a qualified blacksmithing educator or workshop supervisor about machine authorisation, common near misses and the most important reason for stopping a job; summarise the interview in professional English.
Forged part inspection report: Inspect a cooled training sample provided by the trainer, compare it with a drawing and write a report on dimensions, straightness, surface defects and disposition.
Risk-control case study: Analyse a fictional case in which a learner finds loose tooling, excessive noise and a blocked hot-metal route, then propose controls using the hierarchy of risk reduction.

Advanced

Safe system of work critique: Review a fictional machine-forging procedure and identify missing controls for isolation, supervision, PPE, workholding, communication and abnormal situations.
Noise and vibration management brief: Use current HSE sources to prepare a two-page management brief explaining how noise and hand-arm vibration should be assessed and controlled in a forge without treating PPE as the only solution.
Sustainable forge audit: Audit a simulated or real workshop with permission and supervision, focusing on stock utilisation, reheating, scale loss, scrap segregation, extraction and avoidable idle energy, then propose improvements that do not weaken safety.
Expert review panel: Present this module to a blacksmithing tutor, machinery-safety specialist or experienced supervisor and document at least five expert corrections, local adaptations or machine-specific cautions before practical use.

Learning Assessment

Risk transfer assessment: Given a new forging job with longer stock and a different power hammer, explain which parts of the previous risk assessment can be reused and which must be reassessed.
Fault response assessment: Analyse a scenario involving a jammed workpiece and explain the safe sequence from stopping the machine to authorised fault clearance, including stored energy.
Quality-safety connection: Explain how cold forging, poor tong control or misaligned tooling can create both quality defects and safety risks.
Control hierarchy assessment: Compare guarding, exclusion zones, training and PPE for an ejection hazard and justify which measures should carry the greatest weight.
Jurisdiction assessment: Explain why an England apprenticeship standard and Great Britain HSE guidance must not be presented as automatic qualification or legal equivalence in another country or UK nation.
Sustainability transfer assessment: Propose three changes that reduce energy or scrap in a small forge and show why each change is acceptable only if it preserves or improves risk control.

Evidence of Learning

Evidence type	What strong evidence looks like
Knowledge	Accurate explanation of power-hammer and forging-press hazards, PUWER principles, risk assessment, noise, vibration, PPE, manual handling and heat-stress controls within the stated jurisdiction
Practical judgement	Consistent stop-work decisions when guarding, tooling, workholding, machine response, temperature or communication is unsafe
Communication	Clear use of practitioner terminology and agreed stop signals, with no assumption that another person has understood an unsafe or ambiguous instruction
Product evidence	Inspection records, drawings, annotated hazard maps, risk-control analyses and quality reports that are complete and traceable
Quality	Ability to identify cracks, laps, distortion, excessive scale, poor section control and other defects and to choose the correct disposition rather than concealing them
Sustainability	Evidence that material, energy and tooling are used efficiently without weakening guarding, extraction, supervision, isolation or PPE requirements
Transfer	Ability to recognise when a new machine, material, workplace, jurisdiction or task requires a fresh assessment rather than copying a previous procedure