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STARLITE SUB-BRANDS

BAKESALPS-BEAR
Challenges in friction, wear, and lubrication directly impact equipment service life, efficiency, safety, and maintenance workload.

Centered on “Slide / Hold / Seal,” STARLITE delivers one-stop proposals by combining material design × molding and processing × evaluation and analysis—to realise the optimum “motion” for each application.

On this page, we introduce three representative STARLITE tribology sub-brands: BAKES / ALP / S-BEAR.

BAKES

High-temperature / high-load sliding in harsh environments

ALP

Leakage control and gas sealing under cryogenic and high-pressure conditions

S-BEAR

Wear-resistant, lightweight sliding and drive components for series production

Before we introduce our sub-brands…

What is tribology?

Tribology is the engineering discipline that deals with friction, wear, and lubrication at contacting surfaces in relative motion.

It directly influences energy loss, service life, reliability, safety, and maintenance workload in machines and equipment.

In practice, tribology focuses on how to control and optimise:

FRICTION

WEAR

LUBRICATION

In mechanical motion systems, tribology is the engineering field that optimises “motion” by controlling the behaviour of contacting interfaces (sliding surfaces) from the standpoint of friction, wear, and lubrication.

Increased friction leads to energy loss and heat generation, while progressing wear reduces service life and reliability through changes in clearance and loss of dimensional accuracy.

By optimising lubrication conditions and, in an integrated manner, the material selection, surface specification, and component geometry, tribology contributes to extended equipment life, stable operation, and reduced maintenance workload.

BAKES

Material technology for demanding conditions—
supporting sliding performance and durability in high-temperature, high-load, harsh environments.

#HighTemperature #HighLoad #HarshEnvironment #WearResistance #CounterfaceFriendly #WaterLubrication #LongLength #UpTo10m #ReducedDowntime
#LowerMaintenance #SteelIndustry #PulpAndPaper #HeavyDutyEquipment #FrictionMaterials #WearLiners
STARLITE BAKES is a functional laminated material based on phenolic resin (a thermoset). By combining reinforcement substrates—such as organic and inorganic fibres—with a range of fillers, it delivers excellent sliding performance, heat resistance, and mechanical properties (strength, stiffness, etc.).

With extensive field experience in harsh continuous-process lines—including the steel and pulp and paper industries—BAKES supports application-specific material design and offers high design flexibility, including capability for long-length components.

Key features
  • High-temperature capable: Proven in sliding applications under severe temperature conditions.
  • High-load / long service life: Proven in durability-critical applications for heavy-duty equipment.
  • Application-specific optimisation: Material design tailored to application, counterface material, and sliding conditions.
Representative applications
  • Steel rolling line components: wipers / apron liners / metal sleeves, etc.
  • Rudder shaft bearings for large vessels
  • Wear rings for hydraulic cylinders, vanes for vacuum pumps, guide rails for food conveyors, etc.
Typical inquiries
  • “Lubrication does not survive at high temperature / seizure occurs.”
  • “Metal causes galvanic corrosion, galling, and is heavy to handle during maintenance. We want to switch to polymer, but general-purpose resins lack strength.”
  • “We want to extend wear life without damaging the counterface material.”

ALP

PTFE-based materials engineered for harsh gas environments.
From high-pressure hydrogen to cryogenic temperatures—optimised proposals tailored to your operating conditions.

#GasEnvironment #StableSealing #StableSliding #LowFriction #WearResistant #LongServiceLife #OilLubrication #WaterLubrication #SpecialGases
#HighContactPressure #CompressorRings #PistonRings #RiderRings #LargeDiameterRings #UpTo1400mm #CustomDesignProposal #PTFEBased
STARLITE ALP is a PTFE-based material engineered to deliver low friction, heat resistance, chemical resistance, and non-stick performance. Through STARLITE’s proprietary tribology and material design technologies, ALP is further enhanced for wear resistance and compressive performance (resistance to deformation and creep under load).

A range of grades is available to match the operating environment—oil, water, and various gas atmospheres. In addition to grade selection for each application, we also support custom design to meet specific requirements.
ALP provides stable sliding performance even in gas environments such as high-pressure hydrogen, contributing to higher durability and longer service life of components. For cryogenic conditions such as liquid hydrogen, we can also propose material and structural solutions aimed at stabilising sealing performance.

Key features
  • Stable gas sealing: Designed to stabilise leakage performance even under high-pressure gas environments.
  • Cryogenic capability: Designed with a constant-clearance concept to reduce design burden and stabilise sealing at very low temperatures.
  • Non-standard geometries supported: Large-diameter rings (up to Ø1400) and long-length extruded profiles.
Representative applications
  • Long-length rollers for bakery equipment
  • Reciprocating compressor components: piston rings, rider rings, rod packing, etc.
  • Polymer seals for cryogenic environments
Typical inquiries
  • “We want to extend seal life and reduce downtime and replacement workload.”
  • “Clearance design is difficult at cryogenic temperatures, and leakage is hard to predict.”
  • “We need stable performance under high pressure and large temperature fluctuations.”

S-BEAR

Redefine the standard in series-produced sliding components through material design.
Optimised to your conditions for low torque, noise reduction, and grease-free operation.

#SeriesProduction #InjectionMolding #LowTorque #EnergySaving #ReducedHeat #NoiseReduction #StickSlip #GreaseFree #ContaminationControl

#WearResistance #LongServiceLife #PrecisionSliding #Gears #Bearings #Slides #AddedFunctionality #HeatResistance #Conductive #FlameRetardant #CAE

#Testing #Optimisation #OfficeEquipment #PrecisionMechanisms #MetalReplacement #Lightweighting
STARLITE S-BEAR is a high-performance material for injection molding, based on engineering plastics and engineered not only for tribology performance but also for added functions such as heat resistance, electrical conductivity, and flame retardancy.

It is used in sliding and drive-train components for office equipment and automotive applications.
By combining material design with precision injection molding technology, we support series-production implementation of high-function components tailored to required specifications.
In addition, we provide accelerated, high-accuracy development support using CAE, along with material selection and grade design (customisation). Through motion analysis that accounts for torque variation, we help stabilise mechanism operation and improve repeatability of performance.

Key features
  • Wear-resistant / high durability: Extends service life of sliding and drive components.
  • CAE × material × design: Selection and design proposals aligned with target performance requirements.
  • Compact, grease-free, low-noise: Supports overall mechanism optimisation.
Representative applications
  • Functional components for automotive applications
  • Gears and bearings for office equipment (OA)
  • Gears and reducers for robots and actuators
Typical inquiries
  • “We want lower torque without grease / reduce heat generation.”
  • “We need to eliminate squeal (stick-slip).”
  • “We want to replace metal with polymer to reduce weight and assembly workload.”

Please feel free to contact us for an initial discussion

Each of the three sub-brands has its own strength area.

Even if none appears to be an exact match, STARLITE will work with you—through the lens of “Slide / Hold / Seal”—to clarify operating conditions and identify feasible options.
Start with a quick feasibility check—“Can it work under these conditions?”—and we will take it from there.