Get there faster and more precisely, while achieving better contouring performance and optimum surface finish. Renishaw rotary encoders provide precise position feedback for high-end machine tools.
The massive KMT Lidköping VTG4000 grind-turn machine enables high precision wind turbine bearing production on a very large scale, with Renishaw encoders critical to accurate and rapid operation
New linear magnetic encoder range brings additional performance, durability and value to a wide range of applications. The LM10 linear encoder joins Renishaw’s proven family of rotary magnetic encoders. The new LM10 linear magnetic encoder brings 100 m travel and fit-and-forget reliability to demanding high-speed, precision applications.
With ±30 nm cyclic error, patented filtering optics, resolution to 5 nm and simple installation, Renishaw's SiGNUM™ RSLM encoder system provides all of the benefits of a 20 μm encoder with the performance of a fine pitch system.
Like the RESM, the REXM stainless steel ring has graduations marked directly onto the periphery. However, it features a thicker cross-section designed to minimise all installation errors except eccentricity.
Vistec Lithography’s (previously Leica Microsystems) VB300 e-beam lithography tool is a development of the highly successful VB6 series introduced in 1993. In designing the new tool, Vistec identified that a reduction of noise-induced positional errors would significantly improve tool performance. Through a combination of improved mechanical rigidity and integration of the Renishaw RLE20 differential interferometer based encoder system, these errors are now expected to be 3 nm.
Renishaw's latest encoder product news, case stories and technical articles, allowing designers to integrate a wide range of encoders into motion control systems.
Get there faster and more precisely, while achieving better contouring performance and optimum surface finish. Renishaw rotary encoders provide precise position feedback for high-end machine tools.
The massive KMT Lidköping VTG4000 grind-turn machine enables high precision wind turbine bearing production on a very large scale, with Renishaw encoders critical to accurate and rapid operation
New encoder scale provides perfect solution for high resolution printer applications
New state of the art air bearing gantry system features Renishaw’s high-performance incremental encoder
New incremental encoder interfaces with switchable resolutions are ideal for machines with two modes of operation
New AM4096 12-bit magnetic encoder chip
Microstep motor uses OnAxis™ magnetic encoder chip for size-sensitive applications
Guardian’s spatial awareness is as advanced as an electro mechanical device can be. The arm carries a variety of tools, including water jets and x-ray
New linear magnetic encoder range brings additional performance, durability and value to a wide range of applications. The LM10 linear encoder joins Renishaw’s proven family of rotary magnetic encoders. The new LM10 linear magnetic encoder brings 100 m travel and fit-and-forget reliability to demanding high-speed, precision applications.
With ±30 nm cyclic error, patented filtering optics, resolution to 5 nm and simple installation, Renishaw's SiGNUM™ RSLM encoder system provides all of the benefits of a 20 μm encoder with the performance of a fine pitch system.
Like the RESM, the REXM stainless steel ring has graduations marked directly onto the periphery. However, it features a thicker cross-section designed to minimise all installation errors except eccentricity.
Vistec Lithography’s (previously Leica Microsystems) VB300 e-beam lithography tool is a development of the highly successful VB6 series introduced in 1993. In designing the new tool, Vistec identified that a reduction of noise-induced positional errors would significantly improve tool performance. Through a combination of improved mechanical rigidity and integration of the Renishaw RLE20 differential interferometer based encoder system, these errors are now expected to be 3 nm.
A close-up of the Ionoptika imprint, the logo is 20 µm in width, and the first ‘i’ just 70 nm wide