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2013/05/18
 
 
 
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Digital X-Ray

Digital X-Ray

Digital X-ray machines utilize the combination of digital image processing and X-radiation technologies to generate radiographs. They are equipped with X-ray detectors which replace traditional plastic films to produce digitalized images. Compared with the legacy equipments, digital X-ray machines realize a faster imaging process with better quality, and more importantly, reduce radiation dose that is required for imaging. [+MORE]

Digital X-ray machines commonly use direct or indirect-conversion-based FPDs (Flat Panel Detectors) to detect X rays. A direct-conversion-based FPD, which converts received X rays into electric signals directly, is made up of an amorphous selenium layer and a TFT array. While an indirect-conversion-based FPD is built with an amorphous silicon layer, a photodiode array and a TFT array to convert X rays into visible light first with an amorphous silicon layer, and then convert into electric signals with a photodiode array.
A processor is used to control bias voltage imposed on TFT array, and also transmit the charge stored in TFT to a signal acquisition circuit according to a specific sequence by multiplexing. The signal acquisition circuit has an analog front end to convert the charge into voltage and amplify the voltage which represents power level of X-ray. The amplified signal is converted to digital signal by an A/D converter, and then processed by a DSP to create images. These images could be displayed on screen, printed or transmitted to a remote terminal for medical diagnosis.

With the introduction of new materials to FPDs and the development of digital image processing technology, digital X-ray machines with higher resolution and faster and more accurate image reconstruction are set to replace traditional X-ray devices.[-LESS]


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DSP with high performance used to implement image processing
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FPGA with high performance used to implement image processing
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High performance MCU/MPU with multiple I/Os is required
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A single chip or module which contained amplifier and ADC
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High resolution, high SNR ADC is required
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High resolution, DAC is required
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Low noise, high precise amplifier is required
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It is used to implement high-speed serial communications with the image processing unit
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Touch Screen Controller
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Power management
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ANALOG DEVICES ADC Understanding PulSAR ADC Support Circuitry AN-931 Click here
ANALOG DEVICES ADC Designing an ADC Transformer-Coupled Front End AN-935 Click here
ANALOG DEVICES ADC Sampled Systems and the Effects of Clock Phase Noise and Jitter AN-756 Click here
ANALOG DEVICES Amp Active Filter Evaluation Board for Low Distortion Pinout Op Amps AN-0993 Click here
ANALOG DEVICES Amp Fast Rail-to-Rail Operational Amplifiers Ease Design Constraints in Low Voltage High Speed Systems AN-417 Click here
ANALOG DEVICES DAC Driving a Center-Tapped Transformer with a Balanced Current-Output DAC AN-912 Click here
ANALOG DEVICES DAC Understanding Pin Compatibility in the TxDAC ® Line of High Speed D/A Converters AN-595 Click here
ANALOG DEVICES DAC CMOS Multiplying DACs and Op Amps Combine to Build Programmable Gain Amplifier AN-320A Click here
ANALOG DEVICES DAC Wideband Complementary Current Output DAC to Single-Ended Interface: Improved Matching for the Gain and Compliance Voltage Swing SBAA135 Click here
ANALOG DEVICES  DSP Connecting Blackfin® Processors to the AD7656 SAR ADC EE-321 Blackfin Click here
ANALOG DEVICES  DSP Hardware Design Checklist for the Blackfin® Processors EE-281 Blackfin Click here
ANALOG DEVICES  DSP Using the NAND Flash Controller on Blackfin® Processors EE-344 Blackfin Click here
ANALOG DEVICES  DSP Changing the PHY in the Ethernet Driver for Blackfin® Processors EE-315 Blackfin Click here
ANALOG DEVICES  DSP UART Enhancements on ADSP-BF54x Blackfin® Processors EE-331 ADSP-BF54x Click here
ANALOG DEVICES  DSP Power Mode Transition Times of Blackfin® Processors EE-309 Blackfin Click here
FREESCALE SEMICONDUCTOR  DSP Porting and Optimizing DSP56800 Applications to DSP56800E AN2095/D DSP56800 Click here
FREESCALE SEMICONDUCTOR  DSP Software Compatibility Considerations for HCS12, HC16 and 56800/E Devices AN1983 DSP56800 Click here
FREESCALE SEMICONDUCTOR  DSP Synchronizing the On-Chip Analog-to-Digital Converter on 56F80x Devices AN1933 DSP56F80x Click here
FREESCALE SEMICONDUCTOR  DSP Programming On-Chip Flash Memories of 56F80x Devices Using the JTAG/OnCE Interface AN1935 DSP56F80x Click here
FREESCALE SEMICONDUCTOR  DSP DSP56800 Hardware Interface Techniques AN19820/D DSP56800 Click here
FREESCALE SEMICONDUCTOR  DSP Using Program Memory As Data Memory AN1952 DSP56800 Click here
FREESCALE SEMICONDUCTOR  MCU/MPU i.MX51 Power-Up Sequence AN4053 i.MX51 Click here
TEXAS INSTRUMENTS ADC Connecting ADS8410/13 With Long Cable SLAA284 ADS8410/13 Click here
TEXAS INSTRUMENTS ADC Interfacing the ADS8401/ADS8411 to TMS320C6713 DSP SLAA212 ADS8401/ADS8411 Click here
TEXAS INSTRUMENTS ADC High Speed Data Conversion SBAA045 Click here
TEXAS INSTRUMENTS ADC Using ADS8411 in a Multiplexed Analog Input Application SLAA285 ADS8411 Click here
TEXAS INSTRUMENTS Amp Single-Supply Operation of operational Amplifiers SBOA059 Click here
TEXAS INSTRUMENTS Amp Compensate Transimpedance Amplifiers Intuitively SBOA055A Click here
TEXAS INSTRUMENTS Amp Digitally Programmable, Time-Continuous Active Filter SBFA005 Click here
TEXAS INSTRUMENTS Amp Fully differential amplifiers applications: Line termination, driving high-speed ADCs, and differential transmission lines SLYT143 Click here
TEXAS INSTRUMENTS DSP TMS320C6455/C6454 Power Consumption Summary SPRAAE8B TMS320C64xx Click here
TEXAS INSTRUMENTS DSP TMS320C6455 Design Guide and Comparisons to TMS320TC6416T SPRAA89A TMS320C64xx Click here
TEXAS INSTRUMENTS DSP TMS320C645x DSP 64-Bit Timer User’s Guide SPRU968 TMS320C645x Click here
TEXAS INSTRUMENTS DSP TMS320C6472 5-V Input Power Design, Integrated FET DC/DC Converters and Controllers (8x C6472) SLVA391 TMS320C6472 Click here
TEXAS INSTRUMENTS DSP TMS320C6472/TMS320TCI6486 Hardware Design Guide SPRAAQ4B TMS320C6471 Click here
TEXAS INSTRUMENTS DSP TMS320C6472/TMS320TCI6486 DSP Shared-Memory Controller SPRUEG5D TMS320C6472/TMS320TCI6486 Click here
TEXAS INSTRUMENTS DSP TMS320C6472/TMS320TCI6486 DSP Power/Sleep Controller SPRUEG3B TMS320C6472/TMS320TCI6486 Click here
TEXAS INSTRUMENTS DSP How to Approach Inter-Core Communication on TMS320C6474 SPRAB25 TMS320C6474 Click here
TEXAS INSTRUMENTS DSP TMS320C6474 DDR2 Implementation Guidelines SPRAAW8A TMS320C6474 Click here
TEXAS INSTRUMENTS DSP Hardware Design Guidelines for TMS320F28xx and TMS320F28xxx DSCs SPRAAS1B TMS320F28xx Click here
TEXAS INSTRUMENTS DSP Recommended Power Solutions for TMS320x2810/1/2 DSPs SLVA204 TMS320x2810 Click here
TEXAS INSTRUMENTS MCU/MPU OMAP3530 Power Consumption Summary SPRAB98 OMAP3530 Click here
Manufacturer Product Type AN Title AN Number Part Number URL
ALTERA FPGA FPGA Co-Processing Solutions for High-Performance Signal Processing Applications Click here
ALTERA FPGA Medical Imaging Implementation Using FPGAs Click here
TEXAS INSTRUMENTS DSP Multicore processors bring innovation to medical imaging Click here
TEXAS INSTRUMENTS DSP See the difference: DSPs in medical imaging Click here
TEXAS INSTRUMENTS DSP HD Video Encoding with DSP and FPGA Partitioning Click here
TEXAS INSTRUMENTS DSP Picture it: TI DSPs in medical imaging Click here
TEXAS INSTRUMENTS DSP Embedded processors for medical imaging Click here
TEXAS INSTRUMENTS DSP Low power consumption and a competitive price tag make the six-core TMS320C6472 ideal for high-performance applications Click here
TEXAS INSTRUMENTS DSP Enabling Greener Embedded Control Systems with Floating-Point DSCs Click here
TEXAS INSTRUMENTS MPU Introduction to Graphics Software Development for OMAP™ 2/3 Click here
TEXAS INSTRUMENTS MPU SmartReflex™ Power and Performance Management Technologies: reduced power consumption, optimized performance Click here
TEXAS INSTRUMENTS MPU Power-Management Techniques for OMAP35x Applications Processors Click here
Manufacturer Product Type White Paper Title URL
ANALOG DEVICES  DSP Blackfin® Audio EZ-Extender® Manual ADZS-USBLAN-EZEXT  Blackfin Click here
TEXAS INSTRUMENTS DSP TMS320F2812 eZdsp™ DSP Starter Kit (DSK) TMS320F2812 TMS320F2812 Click here
TEXAS INSTRUMENTS DSP Zoom™ OMAP35x™ Development Kit TMDSMEVM3530-L  OMAP3530 Click here
TEXAS INSTRUMENTS DAC DAC5672/62/52 14-Bit, 12Bit and 10 Bit Dual Channel DAC EVM DAC5652EVM DAC5652 Click here
TEXAS INSTRUMENTS DAC DAC7554 Evaluation Module User's Guide DAC7554EVM DAC7554 Click here
Manufacturer Product Type Evaluation Kits Title EVKs Part Number Part Number URL
ALTERA FPGA Cyclone III FPGA Overview Part1 Cyclone III Click here
ALTERA FPGA Cyclone III FPGA Overview Part2 Cyclone III Click here
TEXAS INSTRUMENTS Processor Intro to Power Estimation Tool for AM35x Sitara and OMAP35x OMAP35x Click here
TEXAS INSTRUMENTS Processor Introduction to Codec Engine Click here
TEXAS INSTRUMENTS DSP Differences and enhancements from C6455 to the new C6474 C6455 Click here
TEXAS INSTRUMENTS Processor Achieving 720p encode/decode performance on OMAP3 OMAP3 Click here
Manufacturer Product Type Training Title Part Number URL
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