Texas Instruments Inc. (TI) has announced a new Internet Protocol (IP) camera reference design that provides low power, high definition (HD) video processing for the video surveillance market. The DM368IPNC-MT5 IP camera reference design with H.264 main profile 1080p at 30fps offers industry-leading compression in a full HD solution, with the complete camera utilizing only 3W. Based on a new DaVinci video processor, the IP camera reference design provides 30 percent more host processing performance over the previous generation. This overall performance boost allows the camera to support 720p at 60fps for multiple video formats including H.264 and MPEG-4, as well as MJPEG at 5MP at 15fps. It also supports multi-streaming video processing at various frame rates.
Additionally, the IP camera reference design includes a complete Linux application software package to help customers differentiate their end camera. This application software package includes an Image Signal Processing (ISP) Tuning Tool 1.0, a hardware-accelerated AES encryption module and support for the Physical Security Interoperability Alliance standard (PSIA) for easier adoption and deployment. When combined, this enables customers to quickly create cost-sensitive products with full HD video, such as IP cameras or IP modules for closed-circuit TV cameras, in greatly reduced development time.
TI's DM368IPNC-MT5 IP Camera Reference Design
Texas Instruments
RELATED ARTICLES
No Double Booking in This Semiconductor Recovery
TI Announces MSP430 MCU Design Contest
TI Launches First ARM Cortex-A8 Processors for Industrial Computing Apps
Synchronous DC/DC Boost Converter has Integrated Current-limiting Switch
TI UHF Device Family Enables High-distance Range to Wireless Car Access Systems
TI Intros 30V Linear Battery Chargers with Automatic USB Detection
TI, C.G. Development and Quanta Microsystems Launch Complete RF4CE Development Platform
TI's OMAP-DM5x Coprocessors Bring 20MP Imaging, 720p HD Camcorder Capabilities to Mobile Phones
Texas Instruments Integrated Transmit/receive Switch Speeds Ultrasound Design