2025 HSC Timber paper

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Measure the internal width, height and depth of the carcase opening at several points. Then subtract the clearance required for the drawer runners (from the runner specification) from the width, so the drawer fits the carcase and slides freely without binding.

Memorise pack: T15

• Outlines ONE critical step necessary for taking measurements from the
 2
 carcase to produce a drawer
 • Provides some relevant information 1

NESA sample answer

Before making the drawer, you need to measure the internal width, height and depth of the
carcase. It’s important to leave space for the drawer runners by subtracting their width and
depth from your measurements.

Carcase joints join wide boards or panels at right angles to form a box or cabinet: sides, top, bottom and shelves. A key characteristic is that they support load across the full width of the panel and resist racking, so the carcase stays strong and square. Examples are housing, rebate and dovetail joints.

Memorise pack: T8

• Outlines ONE key characteristic of carcase joints 2
 • Provides some relevant information 1

NESA sample answer

A key characteristic of carcase joints is their strength and durability. They are commonly
used in making cabinets to connect the sides, top and bottom panels, forming a solid
structure that can support shelves and drawers.

A band saw is used for cutting curves and irregular shapes and for resawing thick stock. A table saw is used for straight, precise cuts, such as ripping boards along the grain to width and cutting sheet material to size.

Memorise pack: T15

• Identifies differences between the use of a band saw and a table saw 2
 • Provides some relevant information 1

NESA sample answer

A band saw is used for cutting irregular shapes and making curved cuts, while a table saw is
used for making precise straight cuts and ripping large pieces of wood.

Answers could include

Cutting curves on a bandsaw as opposed to straight cuts on the table saw.

Laminating is suitable. First make a former to the curve of the leg from layers of MDF, allowing a little extra curve for springback. Rip thin strips of straight-grained timber that bend easily, keeping them in order, and dry-clamp them to check the fit. Spread urea-formaldehyde or epoxy glue on the mating faces, stack the strips and clamp them to the former from the centre outwards (or use a vacuum bag). Wipe off squeeze-out. When the glue has fully cured, remove the leg, clean the edges with a jointer or router and template, then cut to length and sand.

Memorise pack: T6

• Provides a thorough description of a suitable bending process 4
 • Provides some description of a suitable bending process 3
 • Demonstrates some understanding of a bending process 2
 • Provides some relevant information 1

NESA sample answer

To create a curved feature leg for the table, you can use the laminating process. Start by
cutting thin strips of wood that can bend easily. Apply a strong adhesive to each strip and
stack them together. Place the stacked strips onto a pre-made form with the desired curve
and secure them with clamps. Allow the adhesive to cure completely, ensuring the layers
bond together. Once the adhesive is fully set, remove the clamps and sand the curved leg to
smooth out any rough edges.

Answers could include

• Steam bending: soaking wood in water, steaming it to increase pliability, bending around a
 form and clamping to set the shape.
• Kerf bending: making a series of cuts (kerfs) on the inside of the curve to allow the wood
 to bend, then filling the kerfs with adhesive and clamping to set the shape.

Set-up: only trained, authorised operators should use the machine. Check that the area is clear and well lit, dust extraction is connected, and the correct sharp blade is fitted with all guards in place and adjusted. Start-up: wear safety glasses, hearing protection and a dust mask, remove loose clothing and jewellery, test the emergency stop, let the machine reach full speed before cutting, and use push sticks and fences. Maintenance: isolate the power and lock out and tag out before any adjustment or blade change. Regularly inspect and replace worn blades and belts, lubricate moving parts and clean away dust, and record all work in a maintenance log. Report and tag out faulty machines immediately.

Memorise pack: T12

• Provides a thorough description of appropriate set-up, startup and
 5
 maintenance procedures for operating high-risk machinery
 • Describes appropriate set-up, startup and maintenance procedures for
 4
 operating high-risk machinery
 • Outlines some of the set-up, startup and/or maintenance procedures for
 3
 operating high-risk machinery
 • Outlines ONE set-up or startup or maintenance procedure for operating
 2
 high-risk machinery
 • Provides some relevant information 1

NESA sample answer

First, the machine should be checked for any damage and to make sure all safety guards are
in place. For startup, test the controls and safety features and make sure all the necessary
protective gear are worn. For maintenance, regularly inspect and lubricate the machine,
replace any worn-out parts and keep a detailed maintenance log. Clean the machine often to
prevent dust and debris from building up.

Answers could include

• Specific setup procedures: ensuring proper ventilation, checking for debris and securing
 the work area.
• Pre-operation checks: verifying power supply, ensuring all machine guards are in place
 and checking that emergency stop mechanisms are functioning.
• Operator training: ensuring operators are adequately trained and understand the
 operation manual.
• Routine maintenance: scheduling regular maintenance checks, including inspecting belts,
 blades and other moving parts.
• Lubrication: ensuring all moving parts are properly lubricated to prevent wear and tear.
• Cleaning: regularly cleaning the machinery to prevent dust and debris buildup, which can
 affect machine performance.
• Record keeping: keeping detailed records of all maintenance activities, repairs and
 inspections.
• Emergency procedures: having clear emergency procedures in place, including knowing
 how to quickly shut down the machine in case of a malfunction.
Section III

Federal: the Illegal Logging Prohibition Act 2012 makes it an offence to import or process illegally logged timber, and requires importers and processors to carry out due diligence on where timber comes from. This has pushed furniture businesses towards certified timber (FSC or Responsible Wood/PEFC), reducing support for illegal logging and the deforestation and biodiversity loss it causes overseas.

State: Victoria and Western Australia ended commercial native forest logging from 1 January 2024. This protects habitat and carbon stores, but it forced manufacturers to switch to plantation, imported or recycled timber and caused mill closures and job losses. Pollution control: under the NSW Protection of the Environment Operations Act 1997, sawmills, board plants and finishing operations may need EPA licences and must control dust, noise, solvent emissions and waste. This drives investment in dust extraction, spray booths and low-VOC finishes.

Local: councils require development approval and environmental impact assessment for new factories. Overall, legislation has made sustainable sourcing and pollution control compulsory, improving the industry's environmental footprint at the cost of higher compliance costs.

Memorise pack: S7

• Describes in detail how legislative requirements have affected
 5
 sustainable practices and environmental impacts of the industry
 • Describes how legislative requirements have affected sustainable
 4
 practices and/or environmental impacts of the industry
 • Outlines the effects of legislative requirements on the sustainable
 3
 practices and/or environmental impacts of the industry
 • Demonstrates some understanding of legislative requirements or
 2
 sustainable practices or environmental impacts
 • Provides some relevant information 1

NESA sample answer

Legislation mandates that timber products come from responsibly managed forests. This has
led to a reduction in illegal logging and promoted sustainable forest management practices.
As a result, companies are now more committed to sourcing their materials responsibly,
which helps protect biodiversity and reduce carbon emissions. For instance, companies
adhering to Forest Stewardship Council (FSC) certification have implemented reforestation
programs and sustainable harvesting techniques. This regulation has significantly improved
the industry’s environmental footprint by encouraging sustainable practices and reducing
deforestation.

Historical developments in manufacturing processes, materials and work practices have moved the timber and furniture industry from hand craft to automated mass production. This has made furniture more affordable, consistent and safe, although it has reduced traditional skills and some jobs.

Before the Industrial Revolution, furniture was made by hand by skilled craftsmen using hand saws, planes and chisels. Production was slow and expensive, and quality depended on the individual maker. The Industrial Revolution brought steam-powered sawmills and machinery, such as the circular saw and powered planers, which greatly increased output. In 1859 Michael Thonet's steam-bent beech No. 14 chair was made from a few standard parts by semi-skilled workers and shipped in parts. This early mass production and flat-pack thinking made furniture affordable.

In the 20th century, electric motors made individual machines and portable power tools (routers, drills, biscuit jointers) common. This improved precision, reduced physical labour and allowed small workshops to mechanise. Manufactured boards were a major materials development: plywood, then particleboard and MDF from the mid-20th century. They used waste and small logs, came in large stable sheets and suited fast assembly with knock-down fittings, which led to flat-pack firms such as IKEA.

In the late 20th century, CNC machining and CAD/CAM allowed highly precise, repeatable and complex cuts and custom sizing at factory speed. Today CNC nesting routers, automatic edge banders and engineered timbers such as glulam and CLT (used in International House Sydney, 2017) continue this change. Work practices changed with the technology: specialised production-line jobs replaced the all-round craftsman, and later multi-skilling, WHS law and training in CNC programming emerged.

Negative effects include loss of hand skills and jobs, environmental pressure from mass consumption, and lower-quality disposable furniture. Overall, historical developments have shaped the industry positively, greatly improving productivity, precision, safety and affordability.

Memorise pack: S6

• Provides a comprehensive analysis of how historical developments and
 advancements in manufacturing processes have affected the timber
 products and furniture industry 9–10
 • Integrates relevant industry examples to support response
 • Provides a sound analysis of how historical developments and
 advancements in manufacturing processes have affected the timber
 products and furniture industry 7–8
 • Makes reference to industry examples to support response
 • Provides an analysis of how historical developments and/or
 advancements in manufacturing processes have affected the timber
 products and furniture industry
 OR 5–6
 • Provides a description of how historical developments and
 advancements in manufacturing processes have affected the timber
 products and furniture industry with some reference to industry examples
 • Demonstrates some understanding of historical developments and/or
 3–4
 advancements in manufacturing processes and/or effects on industry
 • Provides some relevant information 1–2

NESA sample answer

The woodworking industry has been significantly affected by various historical developments
in manufacturing processes. During the Industrial Revolution, the introduction of steam-
powered machinery drastically increased production capabilities and efficiency. This allowed
for the mass production of wooden furniture and other products, meeting the growing
demands of the time.
In the 20th century, the advent of electric-powered tools, such as electric saws and lathes,
further revolutionised the industry. These tools improved precision and reduced the physical
labour required for woodworking, allowing for more intricate and consistent designs.
Additionally, the standardisation of parts and materials during this period led to greater
uniformity and quality control in products.
The introduction of computer numerical control (CNC) technology in the late 20th century
marked a significant advancement. CNC machines enabled highly precise and complex cuts,
which were previously impossible with manual tools. This technology has allowed for greater
customisation and innovation in woodworking designs, catering to diverse consumer
demands.
These historical developments have collectively enhanced the productivity, safety and
precision of the woodworking industry. They have also opened up new possibilities for design
and creativity, shaping the industry into what it is today.

Answers could include

• Mechanisation and automation revolutionised production, increasing efficiency and
 reducing labour costs.
• Mass production methods enabled affordability and wider accessibility of products.
• Digital and computer-aided technologies enhanced precision, consistency and design
 flexibility.
• Miniaturisation of components improved functionality, portability and material efficiency.
• Robotics, AI, CNC and the like systems optimised manufacturing processes, reducing
 waste and errors.
• CAD, CAM, modelling and authoring software led to improved designs, customisation and
 manufacturing processes and improved precision and automation
• Standardisation of materials and components ensured quality control and interoperability.
• Cloud computing and digital storage transformed data accessibility, distribution and
 collaboration.
• Adoption of sustainable manufacturing practices minimised environmental impact and
 waste.
• Increased use of recycled, biodegradable and eco-friendly materials across industries.
• Energy-efficient production methods reduced resource consumption and carbon
 emissions.
• Circular economy principles promoted waste reduction, material reuse and sustainability.
• Integration of renewable energy sources reduced reliance on fossil fuels in industrial
 operations.
• Digital solutions such as cloud storage and on-demand production minimised material
 waste.
• Green technologies advanced the creation of environmentally friendly and energy-efficient
 products.
• Ethical and sustainable sourcing practices ensured responsible use of resources.
• Ongoing research and technological innovation continue to shape modern industry and
 sustainability efforts.
2025 HSC Industrial Technology
Timber Products and Furniture Technologies