btrf8fb 07mm 10 is a precision-engineered component designed for demanding mechanical and optical assemblies. This compact element combines tight tolerances with robust materials to support high-performance applications across industrial and consumer systems.
Engineers and technicians rely on btrf8fb 07mm 10 to maintain alignment, reduce vibration, and ensure consistent operation where standard parts fall short. The following sections detail its specifications, use cases, and practical guidance.
| Parameter | Value | Unit | Notes |
|---|---|---|---|
| Diameter | 07 | mm | Metric shank for press-fit or adhesive mounting |
| Thickness | 10 | mm | Optimal stack height for constrained cavities |
| Material | Stainless Steel 316 | - | Corrosion resistance for harsh environments |
| Surface Finish | Mirror Polished | - | Low friction and clean optical interface |
| Load Capacity | 120 | N | Axial load before plastic deformation |
| Operating Temperature | -40 to 200 | °C | Stable across industrial and field conditions |
btrf8fb 07mm 10 Precision Assembly Features
In precision assemblies, btrf8fb 07mm 10 serves as a reliable spacer and load distributor. Its carefully controlled geometry maintains alignment between bearings, housings, and circuit boards, minimizing runout and drift over time.
Manufacturers specify tight concentricity and flatness to ensure that optical paths and rotational assemblies remain consistent. This reduces maintenance cycles and supports extended service life in demanding environments.
Key Mechanical Properties
The mechanical performance of btrf8fb 07mm 10 depends on tensile strength, yield stress, and elastic modulus. These properties are validated through standardized testing to confirm that the component performs predictably under load and thermal cycling.
Compatibility With Standard Guides
Designers integrate btrf8fb 07mm 10 into linear guides, actuators, and sensor mounts where a low-profile, repeatable reference is essential. Its dimensions match common industry guides, simplifying substitution and retrofits without redesign.
Optical and Instrumentation Uses
In optical benches and measurement systems, btrf8fb 07mm 10 functions as a centering spacer to adjust focal planes and align laser paths. Its smooth surfaces and stable thickness help maintain beam collimation and reduce pointing error.
Instrumentation manufacturers favor this component for calibrations and reference setups because it delivers dimensional stability across temperature ranges. By controlling compression and gap tolerances, it supports repeatable measurement accuracy.
Installation and Handling Guidelines
Proper installation of btrf8fb 07mm 10 requires clean surfaces and controlled force to avoid edge chipping or misalignment. Using calibrated torque tools and alignment jigs ensures consistent preload and prevents surface damage.
Handling best practices include wearing gloves to prevent contamination and inspecting mating faces for burrs or residues. Correct seating improves performance, reduces noise, and extends the lifespan of the overall assembly.
Implementation Recommendations
- Verify surface flatness and cleanliness before installation to prevent uneven loading.
- Use appropriate torque settings and alignment tools to achieve consistent preload.
- Select matching housing materials to avoid galvanic corrosion in humid or chemical-exposed settings.
- Validate performance through functional testing under expected load and temperature conditions.
- Document installation parameters to support repeatability and field maintenance.
FAQ
Reader questions
What types of equipment commonly use btrf8fb 07mm 10?
Industrial sensors, linear motion stages, optical benches, and precision measurement instruments rely on this component for accurate spacing and alignment.
Can btrf8fb 07mm 10 be used in high-vibration environments?
Yes, its stainless steel construction and tight mechanical fit help maintain position under vibration, reducing the risk of drift or loosening over time.
Is this component suitable for medical device manufacturing?
Manufacturers in medical device production use it where strict tolerances and clean surfaces are required for reliable operation and regulatory compliance. The material and geometry are selected to limit dimensional drift, ensuring stable behavior across the specified operating temperature range of -40 to 200°C.