Speed Sensor Bolt - China Manufacturer for Auto Parts

I’m a China-based Manufacturer, delivering a Speed Sensor Bolt designed for automotive and industrial applications. I focus on precision, durability, and quick OEM-ready deliveries. Made from high-strength alloy and heat-treated to grade 12.9, this bolt delivers secure fastening for speed sensor housings, reducing vibration-induced readings drift. Its clean, sealed head resists water and dust, while compatible threads take standard sensor brackets (M6/M8 variants available). I offer customized options: coatings (zinc, black oxide), seals, or metric sizes to fit your build. I provide rigorous tested for torque, misalignment, and load, it helps improve reliability in harsh temperatures and shocks. Ready for high-volume production, with streamlined packaging and documentation to speed up procurement. If you need specific dimensions or branding, I can tailor the order. Company detail: {}

Hot Selling Product

Speed Sensor Bolt in 2025 For the Current Year

As 2025 unfolds, speed sensor bolts play a pivotal role in automotive, industrial automation, and energy sectors. Global buyers seek components that deliver precise sensing with durable, vibration‑resistant performance. The latest designs offer secure mounting and reliable signal transmission, keeping sensor alignment under demanding temperatures and shocks. Made from high-strength alloys with corrosion-resistant coatings, they maintain tight tolerances and enable consistent readings across applications. For global procurement, the advantages are clear: scalable production, predictable lead times, and transparent quality records. A seasoned engineering partner can provide end-to-end support—from material choice and precision machining to surface finishing, testing, and compliance documentation (RoHS/REACH, traceability). Customization options such as thread size, head style, coating, and sensor integration help meet OEM specs, while robust QA and reliable logistics ensure supply continuity across regions.

Speed Sensor Bolt in 2025 For the Current Year

Variant Bolt Size Material Surface Finish Length (mm) Thread Pitch (mm) Head Style Standards Application Temperature Range (C) Torque Range (Nm)
Variant A M6x1.0 Stainless Steel A2-70 Passivated 18 1.0 Button head ISO 898-1; ISO 3506 Front wheel hub sensor mounting -40 to 150 4.5-6.0
Variant B M5x0.8 Stainless Steel A4-80 Electro-polished 16 0.8 Hex socket cap ISO 898-1; ISO 3506 Transmission cover sensor mounting -55 to 120 3.5-5.0
Variant C M8x1.25 Carbon Steel Grade 8.8 Zinc-Nickel coated 22 1.25 Socket cap ISO 898-1 ECU sensor bracket -40 to 125 14-20
Variant D M6x1.0 Stainless Steel A2-70 Bright zinc plating 20 1.0 Button head ISO 898-1; ISO 3506 Sensor to brake-caliper interface -40 to 120 4.0-6.0
Variant E M6x1.0 Stainless Steel A2-70 Passive passivation 12 1.0 Low-profile hex ISO 898-1; ISO 3506 Interior sensor housing -40 to 100 2.5-4.0
Variant F M4x0.7 Carbon Steel Grade 10.9 Black oxide 8 0.7 Socket head cap ISO 898-1 Connector sensor clip fastener -40 to 150 2.0-4.0
Variant G M10x1.5 Stainless Steel A4-80 Electropolished 24 1.5 Button head ISO 898-1; ISO 3506 Heavy-duty speed sensor mounting on axle housing -40 to 150 20-28
Variant H M5x0.8 Stainless Steel A2-70 Zinc plating 18 0.8 Pan head ISO 898-1; ISO 3506 Interior sensor housing assembly -10 to 100 3.0-4.0

Related Products

Speed Sensor Bolt Pioneers in the Field From Concept to Delivery

数据维度:阶段性交付效率随时间的演变

Lifecycle Performance Metrics: Concept to Delivery

Overview of the dataset: The chart presents two related time-series for the Speed Sensor Bolt program over twelve months. Lead Time (days) measures the duration from design approval to delivery readiness. Throughput (units per month) measures how many units are manufactured and delivered monthly as the process moves from concept to commercial readiness. The intent is to illustrate how efficiency and capacity evolve as containment of risks, prototyping, supplier qualification, tooling, and ramp-up activities progress. This dual-axis visualization helps identify whether shorter lead times correlate with higher throughput, or if capacity constraints emerge at certain milestones.

Key observations: In the early months, lead time is long due to design exploration and tooling setup. By Month 6, lead time declines sharply as design stabilizes and production fixtures are validated. Throughput increases gradually as more lines come on stream, then accelerates around months 9 to 12 when automation features are fully integrated and supplier lead times are reduced. The divergence between the two series provides actionable signals: if lead times drop but throughput lags, there may be bottlenecks in downstream processes. Conversely, rising throughput with flat or increasing lead time suggests capacity constraints or quality gates gating speed.

Implications for delivery strategy: The data emphasize the importance of parallel advances—design maturity, tooling readiness, and supplier integration—rather than relying on a single factor. Maintaining a balance between reducing cycle time and expanding capacity supports more predictable delivery windows and higher customer satisfaction. For future iterations, tracking additional metrics such as yield, scrap rate, and on-time delivery rate would provide a richer view of performance across the lifecycle from concept to delivery.

Top Selling Products