Timberix™

Timberix™ reduce echoes by trapping and diffracting sound in the grooves and perforation found on the surface. The sound that passes through the perforation is further absorbed by an acoustic substrate such as fibreglass or mineral wool, which reduces reverberation of the space.

Large, round, white pendant lights hang from a wooden ceiling with geometric beams and recessed lighting, creating a warm and inviting atmosphere.

Most Popular

Three rectangular wooden slat panels—two light-colored and one dark—overlap on a white background. A green fern leaf is placed diagonally across the panels.

Grooved

Timberix™ Grooved acoustic panel features slats and grooves with a machined tongue-and-groove joint for seamless joinery.

A large green leaf is partially covered by a square wooden board with evenly spaced small round holes, all set against a plain white background.

Perforated

Timberix™ Perforated panels feature a 2-layer perforation to trap and diffuse sound for enhanced acoustic performance.

A single white flower with long, slender petals rests on the corner of a plain, square wooden surface against a white background.

Microperforated

Timberix™ Microperforated are micro-holes only perceptible at short eye distance (+/- 250 000 holes/m2) and laminated on a 15mm thick MDF board.

Microperforated

Material: E1 MDF, FR MDF, MgO Composite Board
Structure: Base Material, Finishing & Fleece
Finishing: Melamine, Veneer, Laminate, Paint
Dimension: 2400mm x 128mm or 192mm
Standard Thickness: 12mm, 15mm, 18mm
Standard Pattern: 3.6-1.8-0.5, 8-8-1, etc.

  • Eco-Friendly Test:
    EN 13986 = E1
  • Fire Classification Test:
    EN 13501-1 = Class B
  • Smoke Density Test:
    EN 13501-1 = s1 d0
A wooden coffered ceiling with three large, round, white pendant lights hanging in a row. The ceiling panels display abstract art, and spotlights are embedded between the grids.

Grooved

Material: E1 MDF, FR MDF, MgO Composite Board
Structure: Base Material, Finishing & Fleece
Finishing: Melamine, Veneer, Laminate, Paint
Dimension: 2420mm x 128mm or 192mm
Standard Thickness: 12mm, 15mm, 18mm
Standard Pattern: 13-3, 14-2, 28/4, 59/5

  • Eco-Friendly Test:
    EN 13986 = E1
  • Fire Classification Test:
    EN 13501-1 = Class B
  • Smoke Density Test:
    EN 13501-1 = s1 d0
A close-up view of a modern wooden door, partially open, set within a wall of matching vertical wooden panels with small perforations. The door aligns seamlessly with the wall when closed.

Perforated

Material: E1 MDF, FR MDF, MgO Composite Board
Structure: Base Material, Finishing & Fleece
Finishing: Melamine, Veneer, Laminate, Paint
Dimension: 2400mm x 128mm or 192mm
Standard Thickness: 12mm, 15mm, 18mm
Standard Pattern: 16-16-6, 32-32-6, etc.

  • Eco-Friendly Test:
    EN 13986 = E1
  • Fire Classification Test:
    EN 13501-1 = Class B
  • Smoke Density Test:
    EN 13501-1 = s1 d0
Interior walls and ceiling covered with light wood panels featuring a grid of round perforations, creating a modern and textured architectural design.

Grooved

Three rectangular wooden slatted panels in different wood tones—light, medium, and dark—are arranged diagonally on a plain white background.

Grooved 12/4

Line graph showing absorption coefficient versus center frequency for 25mm rockwool (60kg/m³) per ISO 354. The coefficient peaks around 0.9 near 700 Hz and decreases towards higher and lower frequencies.

Timberix™ 12-4 panels reduce echoes by trapping sound and absorbing high and low frequencies.

Three wooden surfaces with different slat patterns overlap at right angles, surrounded by green fern leaves on a white background. The wooden surfaces vary in color from light to dark brown.

Grooved 13/3

A graph shows absorption coefficient versus frequency for 25mm rockwool, peaking near 1000 Hz. Absorption increases from 315 Hz, peaks near 1.0, then decreases by 5000 Hz.

Timberix™ 13-3 panels reduce echoes by trapping sound and absorbing high and low frequencies.

A large green leaf is placed behind two rectangular wooden panels with vertical grooves, all set against a plain light background.

Grooved 14/2

A graph showing absorption coefficient versus frequency for 50mm rockwool. The absorption rises from 0 at low frequencies, peaks above 1 near 500 Hz, then gradually decreases towards 0.7 at 5000 Hz.

Timberix™ 14-2 panels reduce echoes by trapping sound, with 50mm rockwool absorbing high and low frequencies.

A fan-shaped green palm leaf positioned on the left side next to vertical wooden slats with evenly spaced rectangular cutouts, set against a plain white background.

Grooved 28/4

Line graph showing absorption coefficient versus center frequency for 25mm rockwool (60kg/m³) per ISO 354. The coefficient peaks around 0.9 near 700 Hz and decreases towards higher and lower frequencies.

Timberix™ 28-4 panels reduce echoes by trapping sound, with 50mm rockwool absorbing high and low frequencies.

Two light wood panels with evenly spaced vertical slits are arranged on a white surface, slightly overlapping at the corner. Green fern leaves partially frame the corners of the image.

Grooved 59/5

A line graph showing absorption coefficient vs. octave center frequency for 25mm Rockwool. Absorption peaks around the 1250 Hz range and drops off at lower and higher frequencies.

Timberix™ 59-5 panels reduce echoes by trapping sound and absorbing high and low frequencies.

A rectangular object with a light wood-patterned top featuring three raised, grooved sections and a reddish-brown base with evenly spaced rectangular slots along one edge.

V-Grooved

A shaded area graph shows absorption coefficient (α) on the y-axis and 1/3 octave center frequency (Hz) on the x-axis. The coefficient peaks above 0.7 across frequencies from 315 Hz to 5000 Hz.

Timberix™ V-grooved panels reduce echoes by trapping sound and absorbing high and low frequencies.

Perforated

Two square wooden objects with evenly spaced holes are placed above two upright green leaves on a white background.

Perforated E 16/16/6

Line graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool, peaking around 1250 Hz at about 1.2, then decreasing towards 5000 Hz.

Timberix™ E 16/16/6 panels trap sound with a 2-layer perforation, while an acoustic substrate reduces reverberation.

A large green leaf lies on a white surface. In front of it is a rectangular light wood panel featuring evenly spaced holes in a grid pattern.

Perforated E 16/16/8

A graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool. The curve peaks above 1.0 around 1250 Hz, then gradually decreases towards 5000 Hz.

Timberix™ E 16/16/8 panels trap sound with a 2-layer perforation, while an acoustic substrate reduces reverberation.

A light green leaf diagonally placed behind a rectangular wooden block with a grid of round holes, all on a plain white background.

Perforated E 16/16/10

A graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz). The curve peaks around 0.8 at 1250 Hz, using ISO 354 with 25mm Rockwool (60kg/m³), and decreases towards 0.4 at 5000 Hz.

Timberix™ E 16/16/10 panels trap sound with a 2-layer perforation, while an acoustic substrate reduces reverberation.

Two square wooden coasters with small evenly spaced holes, each placed next to a long green leaf, all set against a plain light background.

Perforated E 32/32/6

A graph showing absorption coefficient versus frequency for 25mm Rockwool. Absorption peaks around 0.9 between 315 and 1250 Hz, then decreases toward 5000 Hz.

Timberix™ E 32/32/6 panels trap sound with a 2-layer perforation, while an acoustic substrate reduces reverberation.

A large green leaf is placed diagonally behind a rectangular block of light-colored wood with evenly spaced holes, against a white background.

Perforated E 32/32/8

A graph showing absorption coefficient (α) vs. 1/3 octave center frequency (Hz) for 25mm Rockwool (60kg/m³). Peak absorption near 315 Hz (about 0.9 α), then decreases toward 5000 Hz.

Timberix™ E 32/32/8 panels trap sound with a 2-layer perforation, while an acoustic substrate reduces reverberation.

A square wooden panel with evenly spaced circular holes arranged in a grid pattern, set against a light background with green palm leaves in the top right and bottom left corners.

Perforated V 16/16/6

A graph showing absorption coefficient versus frequency for 25mm Rockwool (60kg/m³). The curve peaks near 1250 Hz at about 1.1 and ranges from 0.2 at 315 Hz to 0.4 at 5000 Hz.

Timberix™ V 16/16/6 panels trap sound with a 2-layer perforation, while an acoustic substrate reduces reverberation.

Two square wooden panels with evenly spaced small holes are arranged on a white background. Two green palm leaves are placed diagonally across and beside the panels, creating a minimalist, geometric composition.

Perforated V 16/16/8

A graph showing absorption coefficient (0 to 1.2) versus 1/3 octave center frequency (Hz, 100 to 5000) for 25mm rockwool; absorption peaks above 0.8 between ~500 Hz and ~2500 Hz, then decreases.

Timberix™ V 16/16/8 panels trap sound with a 2-layer perforation, while an acoustic substrate reduces reverberation.

Two square wooden objects with evenly spaced holes arranged in a grid pattern, placed on a white background with two green, elongated plant stems crossing behind them diagonally.

Perforated V 32/32/6

A graph shows absorption coefficient versus frequency for 25mm rockwool (60kg/m³). The absorption peaks around 0.9 at 315 Hz, then gradually decreases to about 0.4 at 5000 Hz.

Timberix™ V 32/32/6 panels trap sound with a 2-layer perforation, while an acoustic substrate reduces reverberation.

A large light green leaf is partially covered by a rectangular wooden board with evenly spaced circular holes, set against a plain light background.

Perforated V 32/32/8

A graph showing absorption coefficient (y-axis) versus 1/3 octave center frequency in Hz (x-axis) for 50mm Rockwool. The peak absorption is near 315 Hz, then gradually decreases toward 5000 Hz.

Timberix™ V 32/32/8 panels trap sound with a 2-layer perforation, while an acoustic substrate reduces reverberation.

Microgrooved

Two rectangular wooden panels with evenly spaced vertical slats overlap at the bottom right. Green leaves extend from the top right corner on a plain, light background.

Microgrooved 5/3

A graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool. The absorption rises, peaks between 315 and 1250 Hz, then tapers off by 5000 Hz.

Timberix™ 5-3 Microgrooved panels use smaller grooves to reduce echoes and absorb high-frequency sound.

A rectangular wooden slat panel is placed vertically on a white background, with two green palm leaves partially visible on the left and bottom right sides of the image.

Microgrooved 8/2

A graph showing sound absorption coefficient (α) versus octave center frequency (Hz) for 25mm Rockwool. Absorption peaks above 1.0 between 315 Hz and 1250 Hz, then drops as the frequency approaches 5000 Hz.

Timberix™ 8-2 Microgrooved panels use smaller grooves to reduce echoes and absorb high-frequency sound.

A vertical black slatted panel is centered against a white background, with green leaves in the top left and bottom right corners.

Microgrooved 8/3

A graph showing sound absorption coefficient versus frequency for 25mm Rockwool. Absorption rises from low at 315 Hz, peaks above 1.0 between 1000–2000 Hz, then gradually decreases by 5000 Hz.

Timberix™ 8-3 Microgrooved panels use grooves to reduce echoes and absorb frequencies.

A rectangular wooden slat panel is placed diagonally on a white background, with green leaves visible in the top left and bottom right corners.

Microgrooved 9/2

A graph showing absorption coefficient versus frequency for 25mm rockwool (60kg/m³). The coefficient peaks above 1.0 between 315 and 1250 Hz, then declines toward 5000 Hz.

Timberix™ 9-2 Microgrooved panels use smaller grooves to reduce echoes and absorb high-frequency sound.

Milliperforated

A large green tropical leaf partially covered by the corner of a rectangular wooden object with a smooth, polished surface, set against a plain white background.

Milliperforated E 4/4/1

Graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for ISO 354 with 25mm Rockwool (60kg/m³). The coefficient peaks above 1.0 near 1250 Hz and decreases at higher frequencies.

Timberix™ E 4/4/1 Milliperforated panels trap sound with a 2-layer perforation and an acoustic substrate to reduce reverberation.

A rectangular piece of wood with evenly spaced small holes arranged in a grid pattern, positioned against a plain white background.

Milliperforated E 8/8/1

A graph showing absorption coefficient versus frequency for 25mm Rockwool. The coefficient peaks around 1.2 near 630 Hz, then declines steadily as the frequency increases to 5000 Hz.

Timberix™ E 8/8/1 Milliperforated panels trap sound with a 2-layer perforation and an acoustic substrate to reduce reverberation.

A large green leaf lies partially under a perforated wooden board set on a white background.

Milliperforated E 8/8/2

Line graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool, peaking around 1250 Hz at about 1.2, then decreasing towards 5000 Hz.

Timberix™ E 8/8/2 Milliperforated panels trap sound with a 2-layer perforation and an acoustic substrate to reduce reverberation.

A green palm leaf and a square wooden board with evenly spaced small holes are arranged on a white background. The leaf peeks out from behind the board at an angle.

Milliperforated E 8/8/3

Line graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool, peaking around 1250 Hz at about 1.2, then decreasing towards 5000 Hz.

Timberix™ E 8/8/3 Milliperforated panels trap sound with a 2-layer perforation and an acoustic substrate to reduce reverberation.

A brown rectangular perforated board on a white background, positioned in the top right corner, with a green palm leaf splayed out in the bottom left.

Milliperforated E 16/16/3

Line graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool, peaking around 1250 Hz at about 1.2, then decreasing towards 5000 Hz.

Timberix™ E 16/16/3 Milliperforated panels trap sound with a 2-layer perforation and an acoustic substrate to reduce reverberation.

A large green leaf partially overlaps with the corner of a rectangular wooden object, possibly a tray or panel, on a white background.

Milliperforated V 4/4/1

A graph showing absorption coefficient (α) increasing with frequency using 50mm rockwool. The curve peaks above 0.7 from 315 Hz to 5000 Hz on a scale of 0–1.0 on the y-axis.

Timberix™ V 4/4/1 Milliperforated panels trap sound with a 2-layer perforation and 50mm insulation to reduce reverberation.

A square wooden board on a white background with a green leafy branch placed diagonally across the bottom right corner.

Milliperforated V 8/8/1

A graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool (60kg/m³). The shaded area rises from 0.2 at 125 Hz, peaks above 1.0, and declines after 2000 Hz.

Timberix™ V 8/8/1 Milliperforated panels trap sound with a 2-layer perforation and an acoustic substrate to reduce reverberation.

A single white flower with long, thin petals lies on the corner of a square wooden board with a striped grain pattern, set against a plain white background.

Milliperforated V 8/8/3

A graph showing absorption coefficient versus 1/3 octave center frequency (Hz) for ISO 354 with 25mm Rockwool. The coefficient peaks around 1250 Hz and declines at higher and lower frequencies.

Timberix™ V 8/8/3 Milliperforated panels trap sound with a 2-layer perforation and an acoustic substrate to reduce reverberation.

Microperforated

A light green palm leaf and a square beige woven mat are arranged on a white background, creating a minimal and natural composition.

Microperforated E 2/2/0.5

A graph shows absorption coefficient (α) versus 1/3 octave center frequency (Hz) for a 25mm substrate. The shaded area peaks between 315 Hz and 1250 Hz and decreases towards 5000 Hz.

Timberix™ E 2/2/0.5 Microperforated panels trap sound with a 2-layer perforation and reduce reverberation using an acoustic substrate.

A large green leaf is placed underneath the corner of a beige woven mat on a white background. The mat covers part of the leaf, and both objects are arranged diagonally.

Microperforated E 3/3/0.5

A gray area chart shows absorption coefficient (α) versus 1/3 octave center frequency (Hz), peaking between 315 and 1250 Hz, then tapering off by 5000 Hz. Title: EN ISO 354 with 25mm Substrate.

Timberix™ E 3/3/0.5 Microperforated panels trap sound with a 2-layer perforation and reduce reverberation using an acoustic substrate.

Two brown, square adhesive patches with small perforations beside two long, green leaves on a white background.

Microperforated E 8/8/0.5

A graph shows absorption coefficient (α) on the y-axis versus 1/3 octave center frequency (Hz) on the x-axis, ranging from 315 to 5000 Hz, with values peaking around 0.7 and declining at higher frequencies.

Timberix™ E 8/8/0.5 Microperforated panels trap sound with a 2-layer perforation and reduce reverberation using an acoustic substrate.

A close-up of wooden panels with fine perforated dot patterns, displayed on a light surface with green leaves placed around for decoration.

Microperforated V 1.8/1.8/0.5

A graph showing absorption coefficient versus 1/3 octave center frequency (Hz) for 50mm Rockwool, with absorption rising to about 1 from 315 Hz to 1250 Hz, then tapering off before 5000 Hz.

Timberix™ V 1.8/1.8/0.5 Microperforated panels trap sound with a 2-layer perforation and reduce reverberation using an acoustic substrate.

A wooden surface with scattered green leaves and sprigs, with a fern partially visible at the top on a white background.

Microperforated V 3.6/1.8/0.5

A graph shows the absorption coefficient versus 1/3 octave center frequency (Hz) for 50mm Rockwool. The absorption coefficient ranges up to about 1.0, peaking between 315 Hz and 1250 Hz, then gradually declines.

Timberix™ V 3.6/1.8/0.5 Microperforated panels trap sound with a 2-layer perforation and reduce reverberation using an acoustic substrate.

A sheet of wood veneer with small, evenly spaced perforations lies on a white surface next to delicate white spider lilies with long, thin petals and green stems.

Microperforated V 4/4/0.5

A graph shows the absorption coefficient of 25mm rockwool (60kg/m³) versus frequency, peaking near 315 Hz and then gradually decreasing from about 0.9 to 0.3 as frequency increases to 5000 Hz.

Timberix™ V 4/4/0.5 Microperforated panels trap sound with a 2-layer perforation and reduce reverberation using an acoustic substrate.

Special

Close-up of a modern wooden wall with vertical slats, showing the natural grain of the wood and a sharp corner where the slats meet a smooth wooden surface.

Ribbed

Line graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool (60kg/m³). Absorption peaks around 0.9 between 315 Hz and 1250 Hz, then decreases toward 5000 Hz.

Timberix™ Wooden Ribbed panels trap sound in slots, with an acoustic substrate reducing reverberation for high and low frequencies.

A minimalist desk with an open book, a closed book, and a beige table lamp sits in front of a textured wooden panel wall.

Fluted

Line graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool (60kg/m³). Absorption peaks around 0.9 between 315 Hz and 1250 Hz, then decreases toward 5000 Hz.

Timberix™ Wooden Fluted Panels diffuse sound through surface slots, while an acoustic substrate absorbs noise to reduce reverberation.

A close-up of a light wooden panel with evenly spaced, parallel rectangular slots cut into the surface, shown on a white background.

Slotted

A graph shows absorption coefficient versus frequency for 25mm Rockwool. The curve rises from 0.2, peaks above 1.2 near 1000 Hz, then falls toward 0.4 at 5000 Hz. X-axis: frequency (Hz). Y-axis: absorption coefficient (α).

Timberix™ Wooden Slotted panels trap sound in surface slots, with an acoustic substrate reducing high and low frequency reverberation.

A ceiling with evenly spaced, parallel dark slats and two small round recessed lights turned on, creating a modern, geometric pattern.

Baffle

Gray area graph showing absorption coefficient (α) versus frequency (Hz) for 25mm Rockwool. Absorption increases, peaking above 0.7 between 315–1250 Hz, then slightly decreases but remains above 0.6 up to 5000 Hz.

Timberix™ Baffle reduces echoes by trapping sound in baffle gaps, with an acoustic substrate absorbing high and low frequency reverberation.

A rectangular wooden board with a light brown finish, featuring rows of neatly drilled holes and slots of varying sizes, lies on a plain white surface.

Dew

Line graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool (60kg/m³). Absorption peaks around 0.9 between 315 Hz and 1250 Hz, then decreases toward 5000 Hz.

Timberix™ Dew Perforated wood panels have structured patterns designed for mid-range frequency absorption. Ideal for various spaces.

A rectangular piece of wood with evenly spaced rows of small holes forming wavy, parallel patterns. There is also engraved text in the top left corner. The background is white.

Fern

Line graph showing absorption coefficient (α) versus 1/3 octave center frequency (Hz) for 25mm Rockwool (60kg/m³). Absorption peaks around 0.9 between 315 Hz and 1250 Hz, then decreases toward 5000 Hz.

Timberix™ Fern perforated panels combine natural design with effective sound absorption, controlling echoes for optimal acoustic comfort.

Project Highlight

Timberix™ 20/4

The University Cultural Centre, is a world class performing arts centre that facilitates 22 student arts excellence groups in music, dance, theatre and film. The performance hall was designed to achieve an RT60 time of 1.8 – 2.5 seconds. Timberix grooved panels with grooves 20/4, and ugyen and walnut finish were installed onto the walls to achieve the reverberation time.

A spacious, modern theater auditorium with multiple balconies, curved architecture, and rows of bright blue seats, viewed from an upper level. The stage is not visible.

How Does Timberix™ Timber Acoustic Panel Work?

Timberix™ Timber Acoustic Panels enhance sound absorption using engineered timber slats, perforated wood surfaces, and high-quality natural wood cores. These systems improve sound control, thermal comfort, and overall acoustic quality in every room. Designed in line with architectural interiors, they elevate office and residential décor, resist moisture and mold risk, and deliver practical benefits for customers. As an innovation-driven company, Timberix™ develops timber acoustic solutions that balance acoustic performance, durability, and refined interior aesthetics.

A green fern leaf is partially covered by a white sheet of paper with evenly spaced black polka dots, set against a plain white background.

Sound Absorption

In rooms with reflective surfaces and high ceilings, sound waves create echo and excessive reverberation that reduce speech clarity. Timberix™ Timber Acoustic Panels are engineered to absorb sound at the source, helping to control noise levels, improve sound quality, and create a more comfortable environment in offices, auditoriums, and other spaces.

Wooden boards with holes and grooves are arranged on a white surface, surrounded by scattered green leaves and small sprigs, creating a natural and minimalistic composition.

Designed for Architects

Effective acoustics should blend seamlessly with interior design. Timberix™ Timber Acoustic Panels come in a wide range of wood finishes, groove profiles, and panel styles to suit modern offices and public spaces. These timber panels integrate sound control without disrupting the natural warmth and visual identity of the room.

Wooden panels and blocks of different textures and sizes arranged on a white surface, surrounded by green leaves and ferns.

Warranty Guaranteed

High-use environments require acoustic systems that last. Timberix™ Timber Acoustic Panels are engineered with durable, fire-rated, and eco-conscious materials to deliver consistent acoustic performance. Supported by reliable warranty protection, they provide long-term stability, thermal comfort, and peace of mind for customers.

Frequently Asked Questions

Timberix™ is a range of timber acoustic panels engineered to reduce echoes and reverberation. The panels use carefully designed grooves or perforations on their surface. When sound hits the panel, some of it is trapped or diffracted by the grooves or holes. The sound then passes through to an internal acoustic substrate, which absorbs the sound energy — thereby reducing noise and improving acoustic comfort.

There are multiple varieties of Timberix™ panels including grooved wood panels, perforated wood panels, and micro-perforated wood panels. Each type can be used for wall cladding or ceiling installations depending on the project. The panels are available in various standard dimensions and finishes, allowing them to serve as acoustic wall panels or ceiling tiles depending on design and acoustic needs.

Timberix™ panels, when installed with an acoustic substrate, achieve a Noise Reduction Coefficient (NRC) in the range of roughly 0.3 to 0.75. This means they provide effective sound absorption and can significantly reduce reverberation, making them suitable for environments needing clearer speech, better sound control, or reduced echo.

Yes. Timberix™ uses base materials such as E1-rated MDF or fire-rated MDF, or composite boards, which comply with eco-friendly and safety standards. The product also meets fire-rated testing (EN 13501-1 Class B s1 d0) which makes it safer for indoor installations. These characteristics make Timberix™ suitable for homes, offices, and public buildings in Singapore or other humid urban environments.

For proper installation, the environment must be dry (temperature ≥ 10 °C and humidity between 40–60%). Panels should acclimatise on-site for at least 48 hours before installation. When installing, acoustic substrate is first applied, then panels are joined top-to-bottom and left-to-right. For veneer or wood-laminate finishes, care must be taken to match grain direction. After installation, it’s recommended to clean surface dust with compressed air or dry cloth. These steps help ensure long-term acoustic performance and avoid warping or moisture issues.

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