核心技(jì)術(shù)

Core Technology

5 Key Advantages

Core ISP Features

圖片名稱

TUGE Healthcare has been making significant technological efforts to develop advanced endoscopic imaging systems. We have been making advancements in areas such as optical design, image processing algorithms, and system integration to provide doctors with a clear and accurate view during surgical procedures.

 

Our team of experts in optics, mechanics, electronics, and software engineering has been dedicated to overcoming significant technical challenges. We have invested in state-of-the-art optical systems and high-performance computing capabilities to optimize image processing and visualization. We also collaborate closely with leading experts in the medical field to stay abreast of the latest advancements and trends.

 

With TUGE's core technology - 5D™ platforms, we have been able to integrate the capabilities of optics, mechanics, electronics, software, and AI to bring innovative solutions to the healthcare industry. 5D™ platforms have assisted us in the development and optimization of a range of products and have laid a forward-looking foundation for research and development.

Core Technology

DeepImaging® Platform

TUGE’s imaging platform with multiple-patented technology, compatible with both video endoscopes and optical endoscopes, combines multiple types of CMOS and multispectral imaging, deploys 30+ ISP algorithm modules on high-speed FPGA, and supports full-chain 4K/ 8K image processing, 2D/3D image output, achieving the endoscopic imaging with the highest definition in the industry.

 

DeepColor® Platform

TUGE uses 3D LUT color mapping to enhance the richness and accuracy of imaging colors. At the same time, we have developed AI deep learning-based image enhancement technology to improve the level of detail and the layering of images in the endoscopic system. This technology enables us to efficiently process the captured images from light collection to transmission. Full-link precise color management restores real surgical scenes.

DeepLink® Platform

TUGE's patented Deeplink® Technology utilizes self-developed software and high-speed interconnection to facilitate smart-link control between multiple devices. Additionally, it enables intra-hospital live-streaming for demonstration and teaching purpose.

DeepVision® Platform

TUGE has made a series of innovations to optimize the visual performance of minimally invasive surgery. We explore and reserve technologies like MR , intraoperative navigation, and AI to advance in the field of restoring reality, augmented reality, and mixed reality.

DeepSync™ Platform

TUGE utilizes FPGA chips as a platform to process image signals at high speeds. While maintaining a high level of stability, the system achieves minimal delay with an ultra-high processing bandwidth of 100Gbps(Entire system latency＜0.06 seconds). Hardware modules like the 12G-SDI interface and other high-end configurations enable efficient and low-power consumption for full-link signal transmission. At the same time, FPGA's high flexibility and scalability allow for quick iteration and customized development of platform functions.

DeepImaging® Platform

TUGE’s imaging platform with multiple-patented technology, compatible with both video endoscopes and optical endoscopes, combines multiple types of CMOS and multispectral imaging, deploys 30+ ISP algorithm modules on high-speed FPGA, and supports full-chain 4K/ 8K image processing, 2D/3D image output, achieving the endoscopic imaging with highest definition in the industry.

 

DeepColor® Platform

TUGE uses 3D LUT color mapping to enhance the richness and accuracy of imaging colors. At the same time, we have developed AI deep learning-based image enhancement technology to improve the level of detail and the layering of images in the endoscopic system. This technology enables us to efficiently process the captured images from light collection to transmission. Full-link precise color management restores real surgical scenes.

DeepLink® Platform

TUGE's patented Deeplink® Technology utilizes self-developed software and high-speed interconnection to facilitate smart-link control between multiple devices. Additionally, it enables live streaming both within and outside of the hospital.

DeepVision® Platform

TUGE has made a series of innovations to optimize the visual performance of minimally invasive surgery. We explore and reserve technologies like MR , intraoperative navigation, and AI to advance in the field of restoring reality, augmented reality, and mixed reality.

DeepSync™ Platform

TUGE utilizes FPGA chips as a platform to process image signals at high speeds. While maintaining a high level of stability, the system achieves minimal delay with an ultra-high processing bandwidth of 100Gbps(Entire system latency＜0.06 seconds). Hardware modules like the 12G-SDI interface and other high-end configurations enable efficient and low-power consumption for full-link signal transmission. At the same time, FPGA's high flexibility and scalability allow for quick iteration and customized development of platform functions.

5 Key Advantages

autonomous simulation

SHARP

Clear, vivid images have the ability to restore immersive surgical scenes. 

Picture Name

PRECISE

Precise color reproduction allows for enhanced differentiation of tissues, fascia, and blood vessels.

Picture Name

RAPID

High-speed data processing and low system latency ensure consistent hand-eye coordination for surgeons.

Picture Name

RELIABLE

Reliable performance under extreme electrosurgical interference.

Picture Name

SMART

Intelligent joint control improves surgical efficiency.

Core ISP Features

Picture Name

01

ACRe (Accurate Color Rendition)

Picture Name

02

Super Resolution (AI Inside)

Picture Name

03

Distortion Correction

Picture Name

04

WDR (Wide Dynamic Range)

Picture Name

05

Digital Desmoking

Picture Name

06

Vascular Enhancement

Picture Name

07

Electronic Staining

carbon neutral energy saving and emission reduction

ACRe (Accurate Color Rendition)

The patented color restoration technology precisely calibrates each display device,achieving a color deviation index △E < 1.5 for ultra-high performance. This makes surgical images more accurate and layered, making it easier for surgeons to distinguish between tissues or boundaries.

Super Resolution (AI Inside)

This patented technology utilize deep learning acceleration al-gorithms and FPGA chips to improve the clarity of imaging by 2-3 times (angular resolution) for small aperture optical lens, making it easier for surgeons to distinguish blood vessels,nerves, and membranes.

carbon neutral energy saving and emission reduction
carbon neutral energy saving and emission reduction

Distortion Correction

The 3D lens module utilizes a micron-level registration to ensure consistency between the left and right eyes. Additionally, a patented algorithm is employed to calibrate the images, resulting in an approximate distortion rate of 0.1%.

WDR (Wide Dynamic Range)

WDR technology can achieve dynamic management of surgical image brightness, by brightening the dark areas and suppressing overexposure, making the brightness of the surgical scene image moderate, allowing clear presentation of details both in distant and close-up views.

carbon neutral energy saving and emission reduction
carbon neutral energy saving and emission reduction

Digital Desmoking

Using deep learning to accelerate real-time dynamic recognition of smoke in images,accurately analyze and process smoke signals, helps to reduce interference during surgery and ensures accurate observation.

Vascular Enhancement

According to the absorption characteristics of blood vessels in the spectrum, TUGE uses self-developed algorithms to enhance the visibility of blood vessels, making it easier for surgeons to observe and perform precise surgical operations.

carbon neutral energy saving and emission reduction
carbon neutral energy saving and emission reduction

Electronic Staining

Using the principle of spectral fltering, tissue color differences are enhanced through electronic staining, making it easier to identify different tissues and assist in diagnosing the location of lesions.