Bracesys Kifungo Ngumu cha Orthopediki Kinachoweza Kurekebishwa by Osteoid Design Team is a highly esteemed winner of the very prestigious 2025 Tuzo ya Dhahabu ya A' Design Award in Usanifu wa Vifaa vya Matibabu na Vifaa vya Hospitali Competition Category.
DhahabuBidhaa ya Matibabu· 2025
Bracesys Kifungo Ngumu cha Orthopediki Kinachoweza Kurekebishwa
Client: Osteoid Saglik Teknolojilari AS
Tuzo ya Dhahabu ya A' Design Award Winner in Bidhaa ya Matibabu Category
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The Design
About Bracesys Kifungo Ngumu cha Orthopediki Kinachoweza Kurekebishwa
Bracesys inatoa kifungo cha orthopediki chenye sehemu zinazoweza kubadilishwa ambacho kinabadilika kulingana na mwili wa mgonjwa wakati wote wa uponyaji. Kimeundwa kwa kupimwa mahali hapo na kurekebishwa kwa urahisi, kinachukua nafasi ya gypsi ya jadi kwa kutoa suluhisho la vitendo zaidi, lenye usafi, na la starehe. Muundo wake unaoweza kutumika tena husaidia kupunguza taka za kimatibabu, huku vipimo vilivyosawazishwa vikivifanya vipatikane zaidi kwa vikundi mbalimbali vya wagonjwa. Bracesys inaleta uwezo wa kubadilika, uendelevu, na mawazo yanayozingatia mtumiaji katika huduma za orthopediki.
The Recognition
About the Tuzo ya Dhahabu ya A' Design Award
Bracesys Kifungo Ngumu cha Orthopediki Kinachoweza Kurekebishwa ni mshindi wa Tuzo ya Dhahabu ya A' Design Award, utambuzi wenye heshima kuu unaotolewa kwa miundo ya daraja la kwanza, ya ajabu na ya kuvutia. Washindi wa Dhahabu ni kazi bunifu mno, zenye maono makubwa na za kung'aa kwa umaridadi zinazoakisi kipaji, hekima na ustadi wa wabunifu wao. Bracesys Kifungo Ngumu cha Orthopediki Kinachoweza Kurekebishwa inatarajiwa kuwa uvumbuzi unaosifiwa sana, wa kuweka mielekeo na wa kihistoria unaoleta thamani isiyo na kifani. Muundo huu ulioshinda Tuzo ya Dhahabu ya A' Design Award ni mradi wa kustaajabisha na unaoheshimika unaonufaisha sana na kupanua mipaka ya sanaa, sayansi, usanifu na teknolojia. Bracesys Kifungo Ngumu cha Orthopediki Kinachoweza Kurekebishwa huzua hisia kali za hamu, huamsha shauku, huhimiza ubunifu na hutuvutia.
Behind the Design
Press Kit
Credits, team members and technical details provided by the designer.
- Unique Properties
- Bracesys is a patented, rigid orthopedic brace framework featuring segmented units connected by adjustable articulating connectors and tension dials. Clinicians independently fine-tune each segment, closely matching patient anatomy, providing secure immobilization, and accommodating anatomical changes during recovery. It simplifies clinical procedures, enhances daily patient comfort, and promotes sustainability through recyclable materials and reuse within controlled clinical protocols.
- Dimensions & Packaging
- Bracesys includes specific models like distal radius, colles, shaft fractures in four standardized sizes, covering anatomical variations from the 5th to 95th percentile. A mid-sized Colles fracture brace typically weighs 150 grams, measuring approximately 190 x 90 x 115 mm assembled, and folds flat into an A4 sized envelope for convenient transport. Clinicians use small, screwdriver-sized tools for rapid fitting, precise customization, and incremental adjustments during patient recovery.
- Tags
- Rigid Orthopedic Brace, Customizable Orthosis, Sustainable Healthcare, Modular Framework, 3D Orthotics, Medical Cast
- Production Technology
- Bracesys was developed within a CAD environment through iterative prototyping and 3D-printing SLS/MJF using medical-grade Nylon 12, reinforced by CNC-machined aluminum, stainless steel, and Kevlar cables for robust structural performance. Anatomical accuracy was ensured by analyzing hundreds of anonymized patient CT scans via AI-driven segmentation, implicit skinning algorithms, and statistical shape analysis to precisely define patient-contact surfaces and ensure anatomical compatibility.
- Design Challenge
- Key challenges were obtaining and analyzing extensive anatomical data involving over six hundred anonymized CT scans as well as iterative mechanical refinement through prototyping while ensuring precise geometry Regulatory compliance was straightforward for new brace models but complicated for controlled clinical reuse Managing this rigorous development alongside with running the business sustained strategic prioritization careful resource allocation and continuous commitment to innovation
- Research
- This applied research addresses the need for anatomically accurate, rapidly customizable orthopedic braces. Over 600 anonymized patient hand CT scans were analyzed through AI driven segmentation ,Pix2Pix GAN, implicit skinning algorithms for standardized anatomic alignment, and statistical modeling, Principal Component Analysis, for sizing. Mechanical tests validated structural integrity, while clinical use provided feedback for sizing, comfort and fitting procedures influencing the design.
- Inspiration
- Current orthopedic solutions present trade-offs: off-the-shelf braces rarely fit accurately, while custom 3D-printed alternatives involve lengthy, complex processes that limit their clinical use. Inspired by the precision engineering of timepiece mechanics and sailing rigging systems, Bracesys emerged from a quest to develop a rapid, expert-driven approach that precisely accommodates diverse and evolving patient anatomies, prioritizing comfort, speed, and sustainability.
- Project Duration
- Key challenges were obtaining and analyzing extensive anatomical data involving over six hundred anonymized CT scans as well as iterative mechanical refinement through prototyping while ensuring precise geometry Regulatory compliance was straightforward for new brace models but complicated for controlled clinical reuse Managing this rigorous development alongside another demands sustained strategic prioritization careful resource allocation and continuous commitment to innovation
- Operation Flow
- Bracesys is placed around the limb in a loosely connected circular form, with pre-configured structural segments linked by articulated connectors and loose internal cables, naturally conforming to clinically prescribed anatomical alignment. Clinicians use tools to adjust connector length and incrementally tighten integrated tension dials, mechanically locking the brace into a rigid, supportive configuration. Spring-loaded quick-release pins enable easy loosening for adjustments or brace removal.
- Patents
- US12090080B2, EP3285647B1, CN107771069B, JP6756735B2, US10932940B2 Granted patents / Patent holder Osteoid Saglik Teknolojileri AS
US20240009014A1, EP4312904A1, JP2024511129A, CN117396161A Pending patent applicants / Applicant Osteoid Saglik Teknolojileri AS - Team Members
- Project lead: Deniz Karasahin
Software lead: Gokce Guven
Biomedical engineer: Feyza Aykut
Mechanical engineer: Aykan Duzkaya - Image Credits
- US12090080B2, EP3285647B1, CN107771069B, JP6756735B2, US10932940B2 Granted / Patent holder Osteoid Saglik Teknolojileri AS
US20240009014A1, EP4312904A1, JP2024511129A, CN117396161A Pending / Patent applicant Osteoid Saglik Teknolojileri AS
Image #1 / Photographer / Murat Sariaslan / Santral Fotoğraf, 2025.
Image #2 / Photographer / Murat Sariaslan / Santral Fotoğraf, 2025.
Image #3 / Photographer / Murat Sariaslan / Santral Fotoğraf, 2025.
Image #4 / Photographer / Murat Sariaslan / Santral Fotoğraf, 2025.
Image #5 / Photographer / Murat Sariaslan / Santral Fotoğraf, 2025.
Video #1 / Cameraman / Murat Sariaslan / Santral Fotoğraf, 2025.
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