Indoor Ice Hockey Dasher Board System is a modular perimeter barrier designed for indoor ice hockey rinks, hockey training centers, skating schools and recreational ice facilities. The system combines smooth HDPE or UHMWPE facing panels with galvanized steel or lightweight aluminum supporting frames.
A typical board module may measure approximately 2000 × 1200 mm with a 10–15 mm polyethylene facing panel. Common overall board heights range from approximately 1020 to 1220 mm, while module lengths generally range from 1000 to 2400 mm.
Straight sections, curved corners, triangular supports, access gates, colored kick plates, top handrails and optional transparent protective shielding can be configured according to the rink layout. The modular construction is suitable for permanent, semi-permanent or removable indoor hockey facilities.
Indoor Ice Hockey Dasher Board System is a modular perimeter barrier designed for indoor ice hockey rinks, hockey training centers, skating schools and recreational ice facilities. The system creates a continuous boundary around the ice surface while helping contain hockey pucks, separate players from surrounding areas and provide a clearly defined rink layout.
The complete structure can combine smooth HDPE or UHMWPE facing panels with galvanized steel or lightweight aluminum supporting frames. Straight modules, curved corner sections, colored kick plates, top handrails, access gates, triangular supports and optional transparent protective shielding can be arranged according to the rink dimensions.
The polyethylene facing panel forms the main visible and impact-contact surface inside the rink. It provides low water absorption, practical impact resistance, corrosion resistance and a smooth finish that is convenient to clean and maintain.
An ice hockey rink is normally surrounded by low walls known as boards or dasher boards. For a general explanation of ice hockey rink dimensions, rounded corners and perimeter-board construction, visit the Ice Hockey Rink overview on Wikipedia.
An Indoor Ice Hockey Dasher Board System is assembled from individual barrier modules positioned around a refrigerated or synthetic ice hockey surface. Straight modules form the side and end sections of the rink, while curved or segmented modules connect the corner areas.
Each module normally includes a polyethylene facing panel and a structural supporting frame. Adjacent modules can be joined using bolts, locking pins, connecting plates or other mechanical fasteners. Triangular supports, base brackets or floor anchors help maintain alignment and structural stability.
The modular construction allows individual sections to be installed, removed, repaired or replaced separately. This structure is suitable for permanent hockey facilities as well as seasonal and removable indoor rink installations.
A complete hockey rink barrier system can include the following components:
The final component arrangement should be selected according to the rink dimensions, expected hockey activity, installation frequency, supporting floor and required access positions.
The Indoor Ice Hockey Dasher Board System can be manufactured in different dimensions according to the approved rink layout. The following specifications are practical engineering reference ranges rather than fixed dimensions for every project.
| Product Name | Indoor Ice Hockey Dasher Board System |
| Facing Panel Material | HDPE or UHMWPE |
| Frame Material | Galvanized steel or aluminum alloy |
| Typical Board Module | Approximately 2000 × 1200 mm |
| Typical Overall Height | Approximately 1020–1220 mm |
| Common Module Length | Approximately 1000–2400 mm |
| Common Facing Thickness | Approximately 10–15 mm |
| Typical Facing Option | Approximately 10 or 12 mm polyethylene panel |
| Example Triangle Support Tube | Approximately 50 × 25 × 2 mm |
| Example Bracket Tube | Approximately 50 × 50 × 2 mm |
| Kick Plate Height | Approximately 150–250 mm |
| Kick Plate Thickness | Approximately 8–12 mm |
| Top Handrail Width | Approximately 50–100 mm |
| Player Gate Width | Approximately 800–1000 mm |
| Equipment Gate Width | Approximately 1200–1800 mm |
| Standard Facing Color | White |
| Optional Colors | Yellow, blue, red, black or project-specific colors |
| Installation Type | Permanent, semi-permanent, removable or portable |
| Suitable Environment | Indoor refrigerated ice or synthetic ice hockey facilities |
The listed module and support dimensions are typical project references. Final tube dimensions, wall thickness, anchoring methods and facing-panel specifications should be confirmed according to board height, expected impact, gate configuration and structural requirements.
Longer modules reduce the total number of connections, while shorter modules are generally easier to transport, install and replace. Removable systems may use lighter frames and external supports, while permanent facilities may require fixed floor anchoring.
HDPE is widely used for hockey rink facing panels because it provides good impact resistance, useful rigidity, low water absorption and reliable machining performance.
The smooth white surface creates a clean and professional rink appearance. HDPE panels can be cut, drilled and countersunk according to the supporting-frame drawing.
Fasteners should be positioned so that the rink-facing surface remains as smooth as possible. Countersunk installation helps reduce projecting hardware inside the hockey rink.
HDPE is suitable for training rinks, recreational hockey facilities and indoor venues requiring a durable and economical facing material.
UHMWPE provides increased abrasion resistance, strong impact performance and a naturally low-friction surface. It can be selected for rink sections exposed to frequent puck, skate or equipment contact.
The material absorbs very little moisture and maintains useful toughness in cold conditions. These characteristics make it suitable for frequently used hockey facilities and areas requiring improved wear resistance.
The choice between HDPE and UHMWPE should consider the expected level of use, panel thickness, service-life requirements and project budget.
Galvanized steel frames provide strength and stability for permanent and frequently used hockey rink systems. The zinc coating helps protect the steel structure against moisture and corrosion.
Steel frames can include welded vertical posts, horizontal rails, connecting brackets and triangular supports. The final tube dimensions and welding structure should be selected according to the approved engineering design.
Galvanized steel is generally suitable for larger hockey facilities where structural strength and long-term stability are more important than minimum module weight.
Aluminum frames reduce the weight of individual modules and can make installation, dismantling, transportation and seasonal storage more convenient.
This option is suitable for temporary indoor hockey attractions, exhibitions, shopping centers and seasonal rinks where the complete system may need to be relocated.
The aluminum structure must still provide sufficient rigidity for the selected panel size and barrier height. Reinforcement positions, connections and external support structures should be confirmed before production.
Galvanized steel is generally preferred for permanent hockey rinks, intensive use and projects requiring increased structural strength. Aluminum is generally preferred where module weight, frequent handling and seasonal installation are important.
Important selection factors include:
The frame and polyethylene facing materials should be selected together so that the complete module provides suitable rigidity, durability and handling performance.
Removable hockey rink modules can use triangular supports positioned on the outside of the playing area. The triangular structure increases the supporting footprint and helps resist normal impact against the boards.
An example support may use rectangular steel tubing measuring approximately 50 × 25 × 2 mm, while connecting brackets may use approximately 50 × 50 × 2 mm tubing. These dimensions are reference examples and should be confirmed according to the complete frame design.
External support feet should not obstruct player access, maintenance routes, emergency exits or spectator walkways.
A permanent Indoor Ice Hockey Dasher Board System can be anchored to a prepared concrete foundation or structural rink platform. Fixed anchoring provides increased stability for frequently used hockey and public-skating facilities.
Anchor positions should be confirmed before drilling. Refrigeration pipes, electrical cables, drainage systems and other concealed services must be identified before any floor penetration begins.
The frame, anchor and supporting-floor structure should be evaluated together rather than selecting the anchor system only from the plastic-panel dimensions.
Curved corners create a smooth transition between the side and end sections of the rink. The structure may use specially manufactured curved frames or several shorter segmented modules.
The required corner radius depends on the overall rink dimensions and intended hockey activity. Each corner section should align accurately with adjacent straight modules.
Large gaps, projecting fasteners, sharp edges and visible height differences should be avoided on the rink-facing surface.
A kick plate is normally installed along the lower section of the dasher boards. Yellow is commonly used for ice hockey rinks because it creates a clear visual boundary between the white facing panels and the ice surface.
Blue, red, black or other colors can also be used according to the venue design. Kick plates are exposed to frequent puck and equipment contact and are generally designed as independently replaceable components.
The final kick-plate height and thickness depend on the supporting frame, playing surface and expected impact conditions.
The top handrail covers the upper edge of the hockey rink boards and helps protect the top edge of the polyethylene facing panel. It also creates a finished appearance around the rink.
The handrail can be manufactured from polyethylene or another suitable impact-resistant material. Common colors include blue, red, black and yellow.
Connections between adjacent handrail sections should remain secure and should not create exposed sharp edges or large gaps.
The barrier system can include access gates for players, coaches, officials and maintenance staff. A typical player entrance may have a clear width of approximately 800–1000 mm.
Penalty-box gates, officials’ access gates and wider equipment entrances can also be incorporated into the rink layout. Equipment gates may measure approximately 1200–1800 mm according to the required access.
Gate hinges, latches and supporting frames should be aligned so that each door opens smoothly and closes securely. Hardware should remain away from exposed playing-side surfaces wherever possible.
Acrylic or polycarbonate shielding can be installed above the dasher boards when additional puck containment and spectator separation are required.
The shielding height, thickness and supporting-post structure should be selected according to the hockey activity and venue requirements.
Training facilities and recreational hockey areas may use different shielding configurations from professional competition venues. The final protective structure should be confirmed according to the intended application.
The Indoor Ice Hockey Dasher Board System can be used in:
The system can be installed around conventional refrigerated ice, synthetic ice panels or other compatible hockey training surfaces.
Compact hockey training rinks may use example layouts such as approximately 10 × 6 m, 15 × 8 m or 20 × 10 m. Larger recreational and competition facilities require substantially more board modules.
These dimensions are project examples rather than official competition specifications. The final layout should consider corner radius, player gates, penalty areas, officials’ areas, equipment access, surrounding clearance and emergency routes.
Competition venues should confirm complete rink dimensions, board height, shielding and safety systems according to the applicable sporting regulations.
The rink outline should first be measured and marked on the supporting floor. Straight modules, curved sections and gates can then be positioned according to the approved layout drawing.
Adjacent sections should be connected and aligned before final tightening. The playing-side surface should maintain a consistent height and smooth transition between modules.
After installation, the complete system should be inspected for loose connectors, unstable supports, exposed hardware, uneven sections, gate operation and corner alignment.
The polyethylene panels can be cleaned with water, a soft cloth and a suitable neutral cleaning solution. Sharp metal scrapers and aggressive abrasive tools should be avoided.
Routine inspection should include:
Loose hardware should be tightened before continued use. Cracked panels, unstable frames, damaged doors or broken shielding should be repaired or replaced.
The polyethylene facing panels are cut and machined according to the approved frame design. Processing can include panel cutting, drilling, countersinking, edge finishing and curved-section machining.
Steel or aluminum frames can be produced through tube cutting, welding, drilling and surface treatment. Straight modules, curved corners and access gates can be trial-assembled before shipment.
Important inspection items include:
Trial assembly helps verify the connection between straight sections, curved modules, kick plates, handrails and access gates before delivery.
When selecting an Indoor Ice Hockey Dasher Board System, consider the total rink dimensions, expected hockey activity, required board height, facing material, frame material, gate configuration and installation method.
Permanent and frequently used hockey facilities may prefer galvanized steel frames for increased structural strength. Temporary and seasonal installations may prefer aluminum frames or removable steel supports for easier handling.
HDPE panels provide practical impact resistance and economical performance, while UHMWPE panels can be selected for frequently used sections requiring increased abrasion resistance.
Learn more about our UHMWPE sheets, HDPE panels and engineering-plastic manufacturing capabilities on the Honsee engineering plastic manufacturer website.
The Indoor Ice Hockey Dasher Board System provides a durable, modular and maintainable perimeter solution for indoor ice hockey, hockey training, synthetic ice facilities and recreational skating rinks.
Check drawings for full specifications and confirm materials according to service conditions to prevent product defects.
Inspect all key processing steps and fully verify dimensions, holes, grooves and fitting surfaces.
Deburr, chamfer and clean products for easy installation. Ensure uniform quality among batch products.
Choose appropriate packaging solutions based on product features to protect goods from collision, deformation and mixing during transit.
Unlike metal parts, engineering plastic components still require strict control over dimensions, holes, edges, surface, materials and assembly performance for equipment use.
Engineering plastic parts suit friction, guide, support, buffer, anti-corrosion and insulation areas. We supply UHMWPE, POM, PA, PP/PE components for conveyor, food, mining, machinery, chemical and cable systems, with custom OEM service available.
Stay updated with our latest industry insights, company updates and featured articles.
Engineering plastics are increasingly used in industrial machinery, automated production lines, conveyor systems, packaging equipment, and food-processing machines. Materials such as nylon, UHMWPE, POM, and
Both are lightweight, corrosion-resistant, wear-resistant, and suitable for CNC machining. However, they perform very differently
Wear is a common cause of failure in conveyor systems, packaging machinery, automated equipment, mining
CNC machining is widely used to produce plastic prototypes, low-volume parts, replacement components, jigs, fixtures,
Both are lightweight, corrosion-resistant, wear-resistant, and suitable for CNC machining. However, they perform very differently
Wear is a common cause of failure in conveyor systems, packaging machinery, automated equipment, mining
CNC machining is widely used to produce plastic prototypes, low-volume parts, replacement components, jigs, fixtures,
Need UHMWPE sheets & custom plastic machined/OEM parts？Send specs & material needs, free quote within 24h.
