Proximity Sensor 24v with CE Certification – Pricelist & Specs

I supply a Proximity Sensor 24v that's built for demanding production lines. You get quick, stable sensing without physical contact, easy to mount, and compatible with standard PLC inputs. My units feature a rugged housing, reliable switching, and simple wiring for fast integration into your automation scheme. All products come with CE Certification to meet safety and compliance standards, and I can tailor the output type (NPN/PNP, NO/NC) to your control logic. I keep a clear, up-to-date Pricelist, so you can plan budget and bulk orders with confidence. If you're evaluating supplier reliability, you'll appreciate the long service life, low maintenance, and our responsive support team. I can offer volume discounts, fast lead times, and flexible documentation to fit your purchasing workflow. Reach out and I’ll share datasheets, installation tips, and a custom quote based on your application.

Hot Selling Product

Proximity Sensor 24v For the Current Year Factory-Direct Excellence

For global procurement teams, a 24V proximity sensor is a reliable backbone for automation lines. Factory-direct sourcing offers consistent quality, transparent documentation, and stable spare parts. These sensors deliver robust sensing for conveyors, robotics, and CNC equipment, with compact form factors, PNP/NPN and normally open/closed options, and adjustable or fixed sensing ranges. Built for harsh environments, they often feature IP67 protection, rugged housings, and versatile connectors for quick PLC integration. Choosing a factory-direct supplier means shorter lead times, traceable QC, and scalable stock for global projects. Buyers gain predictable pricing, uniform performance across batches, and options for customization such as cable length or connector type. With strong support, clear datasheets, and reliable worldwide shipping, 24V proximity sensors help minimize downtime and maximize uptime across manufacturing, packaging, and logistics operations.

{ Proximity Sensor 24v For the Current Year Factory-Direct Excellence}

Model Sensor Type Sensing Range (mm) Output Type Voltage (V) Current (mA) Response Time (ms) IP Rating Certifications Manufacture (YYYY-MM)
PD24-IND-01 Inductive 5 PNP NO 24 8 0.5 IP67 CE, UL, RoHS 2026-03
PD24-CAP-02 Capacitive 12 NPN NO 24 9 1 IP65 CE, RoHS 2026-04
PD24-IND-03 Inductive 20 PNP NO 24 12 0.8 IP67 CE, UL 2026-02
PD24-IND-04 Inductive 30 PNP NO 24 11 0.2 IP67 CE, UL, RoHS 2026-01
PD24-IND-05 Inductive 25 PNP NO 24 10 0.3 IP66 CE, RoHS 2026-05
PD24-IND-06 Inductive 8 NPN NO 24 7 1.2 IP65 CE, RoHS 2026-06
PD24-IND-07 Inductive 40 PNP NO 24 13 0.5 IP67 CE, UL, RoHS 2026-07
PD24-CAP-08 Capacitive 2 NPN NO 24 6 0.5 IP67 CE, RoHS 2026-03

Related Products

Proximity Sensor 24v Guarantees Peak Performance Manufacturers You Can Rely On

New Data Dimension: Time-to-Response under 24V Proximity Sensing Conditions

25°C 30°C 35°C 40°C

This chart examines how a proximity sensor operating at 24V responds under four ambient temperature conditions across a 12-step time sequence. The data dimension is Time Step, while the measured metric is Response Time (ms). Each line represents a different ambient temperature: 25°C, 30°C, 35°C, and 40°C. The aim is to illustrate peak performance sustainment and how temperature affects the sensor's reaction speed. Observations include that higher temperatures generally slow response and widen variance; at 25°C, response times are around 12–13 ms; at 40°C, around 18–19 ms, with small fluctuations. The chart shows how under constant 24V supply and identical targets, the sensor maintains stable performance after initial transient. The slope differences indicate that thermal effects accumulate over time, and slower response at higher temperatures could affect system timing, potentially causing missed detections at high-load intervals. The data can help manufacturers calibrate thresholds in firmware, such as dynamic dwell time or hysteresis, to maintain peak perceived performance in real-world environments. The 3:1 aspect ratio ensures legibility on dashboards. The chart's gridlines and legend provide quick cross-comparison: the 40°C line remains the highest across all time steps, indicating worst-case conditions; the 25°C line shows the fastest responses and narrowest spread. We also demonstrate that as the number of time steps increases, the gap between lines remains relatively stable, suggesting linear thermal response characteristics within this range. Limitations include the simplified scenario, lack of load variation, and single-supply configuration; in practice, sensor performance will depend on supply voltage stability, humidity, and mechanical mounting. This visualization supports product teams in designing robust proximity sensing solutions by quantifying how temperature influences detection latency and peak throughput under a fixed 24V operation.

Top Selling Products