MEDICAL
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.
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.
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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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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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Manufacturer | Product Type | AN Title | AN Number | Part Number | URL |
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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 |
NXP | DSP | Porting and Optimizing DSP56800 Applications to DSP56800E | AN2095/D | DSP56800 | Click here |
NXP | DSP | Software Compatibility Considerations for HCS12, HC16 and 56800/E Devices | AN1983 | DSP56800 | Click here |
NXP | DSP | Synchronizing the On-Chip Analog-to-Digital Converter on 56F80x Devices | AN1933 | DSP56F80x | Click here |
NXP | DSP | Programming On-Chip Flash Memories of 56F80x Devices Using the JTAG/OnCE Interface | AN1935 | DSP56F80x | Click here |
NXP | DSP | DSP56800 Hardware Interface Techniques | AN19820/D | DSP56800 | Click here |
NXP | DSP | Using Program Memory As Data Memory | AN1952 | DSP56800 | Click here |
NXP | 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 | White Paper Title | URL |
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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 | 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 |
Manufacturer | Product Type | Evaluation Kits Title | EVKs Part Number | Part Number | URL |
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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 | 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 | Training Title | Part Number | URL |
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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 | Processor | Achieving 720p encode/decode performance on OMAP3 | OMAP3 | Click here |