Texas Instruments DLPC910 Digital Controller
Texas Instruments DLPC910 Digital Controller is required for reliable operation of the DLP9000X and DLP6500 family of DMDs. This device enables one of the highest performing DLP® chipsets. The DLPC910 provides a high-speed data and control interface for the DMD enabling binary pattern rates of up to 15kHz with the DLP9000X and 11.5kHz with the DLP6500. These fast pattern rates set DLP technology apart from other spatial light modulators. These offer customers a strategic advantage for equipment needing fast, accurate, and programmable light steering capability. The Texas Instruments DLPC910 provides the required mirror clocking pulses and timing information to the DMD. The unique capability and value offered by the DLPC910 device make it well suited to support a wide variety of lithography, industrial, and advanced display applications.Features
- Required for reliable operation of the DLP9000X and DLP6500 family of Digital Micromirror Devices (DMDs)
- A user-selectable input clock rate
- 400MHz and 480MHz with the DLP9000X
- 400MHz with the DLP6500
- Continuous streaming input data
- Up to 61Gigabits per second with the DLP9000X
- Up to 24Gigabits per second with the DLP6500
- Enables high-speed pattern rates
- Up to 15kHz binary patterns per second with the DLP9000X
- Up to 11.5kHz binary patterns per second with the DLP6500
- 8-bit grayscale pattern rates
- Up to 1.8kHz with the DLP9000X with modulated illumination
- Up to 1.4kHz with the DLP6500 with modulated illumination
- 64-bit 2x LVDS data bus interface
- Supports random DMD row addressing and load loading
- Compatible with a variety of user-defined application processors or FPGAs
- Integrated I2C interface for general control and status queries
Applications
- Lithography
- Direct imaging
- Flat-panel display
- Printed circuit board manufacturing
- Industrial
- 3D printing
- 3D scanners for machine vision
- Quality control
- Displays
- 3D imaging
- Augmented reality and information overlay
Typical Application Diagram
Publicado: 2017-03-06
| Actualizado: 2023-08-02
