HS35R1024H5P7
The Danaher HS35R1024H5P7 from the Dynapar Encoders series is a high-precision rotary encoder designed for industrial motion control and speed sensing. This encoder delivers 1024 counts/rev resolution and operates on an input voltage range of 5-26 VDC to accommodate varied power supplies. Featuring RS-485-based Profibus DP communication and supporting a maximum shaft speed of 6,000 RPM, the HS35R1024H5P7 ensures accurate feedback and seamless integration into automated systems. Its primary function is to provide reliable position and speed measurement in demanding industrial environments.
Engineered with rugged durability in mind, the HS35R1024H5P7 offers an IP67 enclosure rating for complete dust protection and water immersion up to one meter, ensuring consistent performance even in harsh conditions. The slotted tethered mount with cover mount configuration minimizes vibration and mechanical movement, preserving measurement accuracy. Outputs are delivered as Differential ABZ signals at 5-26 VDC with a 7272 line driver, ensuring noise-immune transmission over long cable runs. The encoder is equipped with reverse polarity and short-circuit protection to safeguard internal circuitry, and utilizes a 10-pin output connector with mating connector for secure electrical connections.
With an operating and storage temperature range of –40 °C to +100 °C, this Dynapar encoder maintains stable operation from freezing cold to extreme heat. The 1 inch shaft bore design and 1.96 kg weight support compatibility with a wide range of motor shafts and drive systems. Its IP67 rating, robust mechanical mounting, and programmable direction functions underscore its durability and efficiency in continuous operation. Certified to industrial standards, the HS35R1024H5P7 enhances process reliability and reduces maintenance downtime. By delivering precise feedback and lasting performance, this encoder offers significant benefits in industrial automation, including improved system accuracy, greater uptime, and simplified integration into complex control architectures.