Amcad Biomed Corporation

Other

Asustek Computer Inc.

Kuo-Chen Huang

Argon Chen

Yu-Hsin Wang

Chiung-Nein Chen

Jia-Jiun Chen

King-Jen Chang

Ming-Hsun Wu

Yu-Cheng Shen

Ming-chih Ho

Chung-Wei Kuo

Kuan-Kun Tang

Kuen Yuan Chen

Po-Hsiang Tsui

Yu -Hsin Wang

King -Jen Chang

Chiung -Nein Chen

Kuen-Yuan Chen

Provided is a positioning adjustment apparatus for a mobile device in scanning and photography, including a main body and a lifting unit. An object to be scanned is placed on the main body, and the mobile device placed on a carrier platform of the lifting unit can move up and down along with the lifting unit to adjust a distance between the mobile device and the object to be scanned. After scanning, a document is sent directly to a shredder. The invention also provides a wireless signal transmission to operate the mobile device for scanning or photography to meet various demands of the users.

Positioning adjustment apparatus for mobile device in scanning and photography

An echogenicity quantification method and a calibration method for ultrasonic device using echogenicity index are disclosed. The method includes: receiving an ultrasound image which comprises a plurality of grayscale pixels; choosing a region of interest (ROI); calculating the values of the grayscale pixels in ROI to obtain average value and standard deviation; excluding pixels in ROI with the grayscale value smaller than the sum of the minimum value in the grayscale image and the product of a first scaling factor and the standard deviation, and larger than the sum of the average value and the product of a second scaling factor and the standard deviation; averaging the values of the remaining grayscale pixels in ROI to obtain an average value of interest; choosing a reference region; averaging the values of the remaining grayscale pixels in the reference region to obtain an average value of reference; and calculating the difference between the average value of interest and the average value of reference to obtain an echogenicity index.

Echogenicity quantification method and calibration method for ultrasonic device using echogenicity index

The invention provides an analysis method of ultrasound echo signals based on statistics of scatterer distributions. The beginning of steps, choosing an ultrasound echo signal as a center, and calculating the signal image values of all ultrasound echo signals within a window block in an ultrasound image data to obtain an ultrasound scatterer value. Then, choosing another ultrasound echo signal as the center to repeat the previous steps until all of ultrasound echo signals may be calculated. The interval between each of ultrasound echo signal is one point distance. Finally, to output an ultrasound scatterer mode image with all ultrasound scatterer values by utilizing color scale. The ultrasound scatterer mode image can assist doctor to confirm the relative region of lesion in a target organ.

Analysis methods of ultrasound echo signals based on statistics of scatterer distributions

The present invention provides quantification and imaging methods and a system of the echo-texture feature, comprising: obtaining an ultrasonic image; calculating all the pixel values in a selected ROI of the ultrasonic image to obtain a regional standard deviation; excluding pixels with a pixel value smaller than a multiple of the regional standard deviation in the selected ROI; counting a set of pixels centered around a Npixel to gather a Nlocal mean, a Nlocal variance and a Nlocal coefficient of variance corresponding the set of pixel values, wherein N is from 1 to the number of the pixels remaining in the selected ROI; and obtaining an echo-texture index according to the local means, the local variances, or the local coefficient of variances. The imaging of echo texture which shows the echo texture distribution of the selected ROI with a color scale changing continuously from red to blue is also included. A parameter is provided to adjust the visualization enhancement of the echo texture.

Quantification and imaging methods and system of the echo texture feature

The present invention provides an acceleration and enhancement methods for ultrasound scatterer structure visualization. The method includes: obtaining an ultrasonic image, calculating all values of the ultrasonic signal points in each mwindow centered at a nsignal point to obtain a plurality of original statistical values ax, obtaining a plurality of mstatistical values by averaging value of original statistical values in the same window, calculating a plurality of mweighting values based on the statistical values by different weighting formulas, multiplying each weighting value with the original statistical values corresponding to the various size of windows, summing up to obtain an ultrasound structure scatterer value of the nultrasonic signal point, and generating an ultrasound scatterer structure image based on a matrix of the ultrasound scatterer values. The present invention further combined interpolation method can reduce the computation time and retain the 80% accuracy.

Acceleration and enhancement methods and system for ultrasound scatterer structure visualization

A heat-dissipation system and a matrix thermal sensing circuit are provided. The heat-dissipation is used in an electronic device. The electronic device comprises a circuit board and a plurality of load elements disposed on the circuit board. The matrix thermal sensing circuit includes a current sensing module and a calculation module. The current sensing module includes a plurality of sensing nodes. Each sensing node is electrically connected to a current feeding terminal of one corresponding load element, and senses the working current of the corresponding load element respectively. The calculation module is connected to the current sensing module and is used to determine thermal state of the location of the sensing node according to the working current respectively.

Matrix thermal sensing circuit and heat dissipation system

The invention discloses a compute system which may detect the state of a power supply. The system includes a power supply and a motherboard. The power supply has a detecting unit for detecting a power state of the power supply. The detected information is converted to a high-frequency signal and outputted to the motherboard via a 'power good' pin in an ATX power connector. The motherboard may obtain a voltage, current, power, temperature and other values inside the power supply via the ATX power connector and allow the values to be displayed on the screen to provide a real-time monitoring function for the users.

Computer power supply for converting a power state to a high frequency signal and carrying the high-frequency signal in a DC voltage level of a power good pin

A backplane structure is capable of being mounted with two interface cards for being used in an industrial computer. The backplane structure includes a backplane capable of being connected to a mother board of the industrial computer and having a first side, a second side and a height of 1U (1.75&Prime;). A first peripheral component interconnection (PCI) port is provided on an upper portion of said first side, an industry standard architecture (ISA) port having a plurality of terminals on two ends thereof is provided on the lower portion of the second side by soldering so as to form a terminal-less region on the first side. In addition, a second peripheral component interconnection (PCI) port is provided on the terminal-less region on the first side.

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Taipei, Taiwan

Kuo-Chen Huang