Unisync Dolen Reoli Microsgop by Chen Xu

Unisync Dolen Reoli Microsgop by Chen Xu is a highly esteemed winner of the very prestigious 2025 Gwobr Arian A' Design Award in Offeryn Gwyddonol Competition Category.

ArianOfferyn Gwyddonol· 2025

Unisync Dolen Reoli Microsgop

by Chen Xu

Client: Widgtech

Gwobr Arian A' Design Award Winner in Offeryn Gwyddonol Category

57,203
Verified Award Winner
Verify Award Status for #169738

View at A' Design Award Press Release Award Badge

Colors

The Design

About Unisync Dolen Reoli Microsgop

Mae Unisync yn ddolen reoli a ddyluniwyd ar gyfer microsgopau mewn systemau archwilio morffoleg celloedd sy'n seiliedig ar ddeallusrwydd artiffisial. Mae'r ddolen yn caniatáu i un llaw symud llwyfan y microsgop ar hyd tair echelin, gan adael y llaw arall yn rhydd i weithredu'r cyfrifiadur. Mae Unisync yn cysylltu'n uniongyrchol â'r microsgop yn hytrach na gweithio drwy feddalwedd, sy'n cadw'r oedi'n isel a'r rheolaeth yn fanwl gywir. Mae'r ffon reoli yn cynyddu cyflymder wrth iddi gael ei symud ymhellach o'r canol. Mae'r ffurf gymesur yn addas i ddefnyddwyr llaw chwith a llaw dde fel ei gilydd. Mae'r corff wedi'i wneud o ABS wedi'i fowldio drwy chwistrelliad gyda gorffeniad llwyd arian.

The Recognition

About the Gwobr Arian A' Design Award

Mae Unisync Dolen Reoli Microsgop yn enillydd Gwobr Arian A' Design Award, cydnabyddiaeth hynod fawreddog a roddir i ddyluniadau o'r radd uchaf, hardd a thrawiadol. Mae enillwyr Arian yn weithiau tra disglair a hynod greadigol sydd yn darlunio arbenigedd, dawn a chraffter rhagorol eu dylunwyr. Disgwylir i Unisync Dolen Reoli Microsgop fod yn waith gwych ac esiampl, yn nodedig o broffesiynol ac yn ddwfn arloesol. Mae'r dyluniad buddugol hwn o Wobr Arian A' Design Award yn ddyfais hynod nodedig a edmygir sydd yn elwa ac yn symud ymlaen ffiniau celf, gwyddoniaeth, dylunio a thechnoleg. Mae Unisync Dolen Reoli Microsgop yn greadigaeth y cenfigennir wrthi yn eang, sydd yn deffro dyheadau, yn cyflwyno teimladau cadarnhaol ac yn cynnau rhyfeddod a syndod.

Behind the Design

Press Kit

Credits, team members and technical details provided by the designer.

Unique Properties: This handle is designed for AI cell morphology inspection system, aiming to enhance medical staff efficiency and reduce fatigue in a more accurate, reliable, and user-friendly way. Low latency and precise control are ensured by connecting directly to the microscope rather than using software. The design combines a single-handed grip with intuitive, fluid interaction, meeting the need to operate the computer simultaneously and reducing healthcare worker fatigue.
Dimensions & Packaging: 120mm×130mm×166mm
Tags: Microscopic Control Handle, single-handed , user-friendly, convenient Interaction
Production Technology: ABS injection molding. Silver - gray metal spray painting.
Design Challenge: The core challenge of the project is how to integrate tri-axis control within limited space, ensuring independent and non-interfering operation of XY and Z axes. In addition, the ergonomic design is also a challenge with the need for microscope precision and stability. The design of the handle also needs to harmonize the comfort and aesthetics of the medical device to create an innovative product that is both functional and aesthetically pleasing.
Research: Cell morphology testing is crucial in disease diagnosis. Through communication with pathologists and technicians, we found the traditional microscope operation cumbersome and inefficient, limiting AI system performance. Additionally, intelligent microscopes with software introduce latency and store unscreened data, wasting resources. This project effectively integrates pathologists' real needs into the microscope control handle design, improving operational efficiency.
Inspiration: Traditional microscopes present cumbersome operation in cellular morphology examination, hindering AI system efficiency. To optimize workflow and reduce operator fatigue, this control handle integrates tri-axis movement into a single-handed design. Furthermore, direct connection to the microscope ensures low latency and precise human-machine collaboration. Speed control is achieved through intuitive joystick offset, providing a more user-friendly and simplified interaction.
Project Duration: The project started in July 2024 in Beijing and finished in January 2025 in Beijing.
Operation Flow: The control handle can be directly connected to the microscope within the AI Inspection System, with an indicator light showing the data transfer status between the microscope and the computer. The symmetrical design does not limit the user's dominant hand. While holding the handle, the thumb and index finger naturally rest on the joystick, enabling easy operation of the microscope stage's tri-axis movement. The speed increases as the joystick is offset further.
Team Members: Liu Beibei, Chen Xu, Li Shulong, Zhang Mingjie, Dr. Zhang Rong, Hao Qian, Huang Hao and Wu Fangbo