Ultrasound Imaging System Including A Graphic Processing Unit

• US 20090156934A1
• Filed: 11/10/2008
• Published: 06/18/2009
• Est. Priority Date: 11/09/2007
• Status: Abandoned Application

• Current Assignee: Samsung Medison Company Limited (Samsung Electronics Co. Ltd.)
• Original Assignee: Samsung Medison Company Limited (Samsung Electronics Co. Ltd.)
• Inventors: Kim, Hyoung Jin, Lee, Jae Keun, Lee, Suk Jin
• Application Number:
  US12/268,385
• Publication Number:
  US 20090156934A1
• Time in Patent Office: Days
• US Class Current: 600/443
• CPC Class Codes: G01S 7/52057 Cathode ray tube displays

Abstract

The present invention relates to an ultrasound imaging system. The ultrasound imaging system includes an ultrasound diagnostic unit and an image processing unit. The ultrasound diagnostic unit transmits ultrasound signals to a target object and forms receive data based on ultrasound echo signals reflected from the target object. The image processing unit forms an ultrasound image based on the receive data. The image processing unit includes a graphic processing unit configured to perform at least one of functions including processing the receive data to form image data, performing scan conversion upon the image data to form scan-converted data suitable for display, and rendering and filtering the scan-converted data to form pixel data.

Claims

1. An ultrasound imaging system, comprising:

an ultrasound diagnostic unit operable to transmit ultrasound signals to a target object and form receive data based on ultrasound echo signals reflected from the target object; and

an image processing unit operable to form an ultrasound image based on the receive data, the image processing unit including a graphic processing unit configured to perform at least one of functions including processing the receive data to form image data, performing scan conversion upon the image data to form scan-converted data suitable for display, and rendering and filtering the scan-converted data to form pixel data.

2. The ultrasound imaging system of claim 1, further comprising a storage unit configured to store at least one of a shader code for application of a color palette, a color keying code for transparency treatment and a color information mapping code.

3. The ultrasound imaging system of claim 2, further comprising a display unit operable to display the ultrasound image

4. The ultrasound imaging system of claim 3, wherein the image processing unit further includes a central processing unit operable to control at least one of the storage unit and the display unit.

5. The ultrasound imaging system of claim 4, wherein the graphic processing unit includes:

a video memory having a plurality of storage areas;

a mode determining unit operable to determine an image mode based on the scan-converted data to form mode information;

a vertex initializing unit operable to form vertex information based on the scan-converted data;

a texture data forming unit operable to combine the vertex information with the scan-converted data to thereby form texture data;

a video memory area allocating unit operable to form storage area allocation information of the video memory according to a data format of the image mode based on the mode information;

a data upload unit operable to upload the texture data to a storage area allocated at the video memory based on the storage area allocation information;

a rendering unit operable to perform rendering upon the texture data uploaded at the video memory to form frame data; and

a filtering unit operable to perform filtering upon the frame data to form pixel data.

6. The ultrasound imaging system of claim 4, wherein the image processing unit includes:

a digital signal processing unit operable to process the receive data to form the image data; and

a digital scan converting unit operable to perform scan conversion upon the image data to form digital scan-converted data,

wherein the graphic processing unit includes;

a video memory having a plurality of storage areas;

a mode determining unit operable to determine an image mode based on the digital scan-converted data to form mode information;

a vertex initializing unit operable to form vertex information based on the digital scan-converted data;

a texture data forming unit operable to combine the vertex information with the scan-converted data to thereby form texture data;

a video memory area allocating unit operable to form storage area allocation information of the video memory according to a data format of the image mode based on the mode information;

a data upload unit operable to upload the texture data to a storage area allocated at the video memory based on the storage area allocation information;

a rendering unit operable to perform rendering upon the texture data uploaded at the video memory to form frame data; and

a byte alignment converting unit operable to convert a data format of the frame data,

wherein the CPU is configured to perform filtering upon the frame data to form the pixel data.

7. The ultrasound imaging system of claim 4, wherein the image processing unit includes a digital signal processing unit operable to process the receive data to form the image data, and wherein the graphic processing unit is operable to scan-convert the image data and render and filter the scan-converted image data to thereby form the pixel data.

8. The ultrasound imaging system of claim 7, wherein the graphic processing unit includes:

a video memory having a plurality of storage areas;

a mode determining unit operable to determine an image mode based on the scan-converted data to form mode information;

a vertex initializing unit operable to form vertex information based on the scan-converted data;

a texture data forming unit operable to combine the vertex information with the scan-converted data to thereby form texture data;

a video memory area allocating unit operable to form storage area allocation information of the video memory according to a data format of the image mode based on the mode information;

a data upload unit operable to upload the texture data to a storage area allocated at the video memory based on the storage area allocation information;

a rendering unit operable to perform rendering upon the texture data uploaded at the video memory to form frame data; and

a filtering unit operable to perform filtering upon the frame data to form pixel data.

9. The ultrasound imaging system of claim 3, wherein the image processing unit includes a digital signal processing unit,

wherein the graphic processing unit includes:

a video memory having a plurality of storage areas;

a mode determining unit operable to determine an image mode based on the digital scan-converted data to form mode information;

a vertex initializing unit operable to form vertex information based on the digital scan-converted data;

a texture data forming unit operable to combine the vertex information with the scan-converted data to thereby form texture data;

a video memory area allocating unit operable to form storage area allocation information of the video memory according to a data format of the image mode based on the mode information;

a data upload unit operable to upload the texture data to a storage area allocated at the video memory based on the storage area allocation information;

a rendering unit operable to perform rendering upon the texture data uploaded at the video memory to form frame data; and

a byte alignment converting unit operable to convert a data format of the frame data,

wherein the CPU is configured to perform filtering upon the frame data to form the pixel data.

10. The ultrasound imaging system of claim 3, wherein the graphic processing unit includes:

an image data forming unit operable to process the receive data to form image data;

a video memory having a plurality of storage areas;

a mode determining unit operable to determine an image mode based on the scan-converted data to form mode information;

a vertex initializing unit operable to form vertex information based on the scan-converted data;

a texture data forming unit operable to combine the vertex information with the scan-converted data to thereby form texture data;

a video memory area allocating unit operable to form storage area allocation information of the video memory according to a data format of the image mode based on the mode information;

a data upload unit operable to upload the texture data to a storage area allocated at the video memory based on the storage area allocation information;

a rendering unit operable to perform rendering upon the texture data uploaded at the video memory to form frame data; and

a filtering unit operable to perform filtering upon the frame data to form pixel data.

11. The ultrasound imaging system of claim 3, wherein the graphic processing unit includes:

a video memory having a plurality of storage areas;

a mode determining unit operable to determine an image mode based on the digital scan-converted data to form mode information;

a vertex initializing unit operable to form vertex information based on the digital scan-converted data;

a texture data forming unit operable to combine the vertex information with the scan-converted data to thereby form texture data;

a video memory area allocating unit operable to form storage area allocation information of the video memory according to a data format of the image mode based on the mode information;

a data upload unit operable to upload the texture data to a storage area allocated at the video memory based on the storage area allocation information;

a rendering unit operable to perform rendering upon the texture data uploaded at the video memory to form frame data; and

a byte alignment converting unit operable to convert a data format of the frame data,

wherein the CPU is configured to perform filtering upon the frame data to form the pixel data.

12. The ultrasound imaging system of claim 11, wherein the graphic processing unit further includes a buffer memory for storing the byte alignment converted data.