Shanghai Fair Indonesia 202611—12 November 2026

Kesehatan

Shanghai Shandi Medical Technology Co., Ltd.

Founded in 2018, Shanghai Shandi Medical Technology Co., Ltd.is dedicated to providing professional services in the medical device industry. The company is committed to building an interactive platform in the digital medical sector, with a particular focus on AI‑driven medical solutions and additive manufacturing in healthcare. It brings together 600 experts and 400 manufacturers from China's digital medical field, integrating resources both domestically and internationally. By serving as a strategic bridge among government agencies, hospitals, and enterprises, the company facilitates the standardized development of the medical device industry and promotes collaboration and knowledge exchange.

Produk & keunggulan

Customized 3D Printed Patient-Specific Anatomical Surgical Model

This model is fabricated using 3D printing technology based on patient-specific CT and MRI data, accurately reproducing the patient's anatomical structures. Made from polymer materials (e.g., photosensitive resin) and delivered non-sterile, it enables clinicians to visually inspect lesion anatomy, understand complex spatial relationships, and perform surgical simulations and practice on the model, thus supporting surgical planning and preoperative decision‑making. Highlights: -1:1 accurate replication of anatomy based on real patient imaging data -Facilitates preoperative planning, reduces intraoperative time, and lowers surgical risks -Capable of printing bones, organs, and various tissues to meet multidisciplinary needs -Supports multi‑material composite printing to simulate different tissue textures

Personalized 3D Printed Surgical Guide

This product is a patient-specific surgical aid designed using computer‑aided design and 3D printing based on the planned surgical approach. Derived from CT/MRI data and made of polymer materials via 3D printing, it is provided non‑sterile and used for positioning, guidance, and assessment in orthopedic, neurosurgical, and other surgeries. Acting as a “GPS navigation” for surgery, it physically bridges the digital surgical plan (based on imaging data) and the actual operative steps (drilling, osteotomy, screw placement). Highlights: -Sub‑millimeter positioning accuracy ensures precise execution -Simplifies the surgical workflow and shortens operation time -Widely applicable in orthopedics, neurosurgery, maxillofacial surgery, and more -Allows integration of multiple cutting/drilling guide positions on a single guide

Personalized 3D Printed Orthopedic Prosthesis

This product is a customized orthopedic implant manufactured using 3D printing technology based on patient CT data, digital reconstruction, and personalized design. 3D printing enables the transformation of orthopedic implants from “off‑the‑shelf” to “patient‑specific,” allowing the fabrication of implants that perfectly match the patient's anatomy and mechanical requirements. Made of biocompatible materials via additive manufacturing, it is used in bone defect repair, joint reconstruction, and other orthopedic procedures. Highlights: -Perfectly matched to the patient's individual anatomy for truly personalized treatment -Porous structure design promotes bone ingrowth and biological fixation -Excellent biocompatibility and mechanical properties -Shortens postoperative recovery and improves long‑term clinical outcomes

Personalized Additively Manufactured Interbody Fusion Cage

This product is manufactured using 3D printing technology with metal powder via a laser melting process. It is designed for use in spinal interbody fusion surgery to support the intervertebral space and promote bone fusion. The biomimetic porous structure facilitates bone ingrowth and biological fixation. Highlights: -3D‑printed biomimetic porous structure promotes bone ingrowth and biological fixation -Excellent mechanical strength and biocompatibility -Personalized design to match patient anatomy

Personalized 3D Printed Porous Joint Augment

This product is a personalized 3D‑printed porous filler block designed for bone defect reconstruction in joint arthroplasty. Custom‑designed based on patient CT data and manufactured using 3D printing technology, it features a biomimetic porous structure. It provides immediate structural support while promoting bone ingrowth through its porous design for long‑term biological fixation. It is suitable for bone defect reconstruction in complex primary or revision joint arthroplasty. Highlights: -Custom‑designed to precisely match individual bone defects -Porous structure offers dual functions of immediate support and long‑term biological fixation -Excellent biocompatibility -Suitable for complex primary and revision joint arthroplasty

3D Printed Denture

This product is a denture fabricated using digital 3D printing technology. Intraoral scanning captures the patient's oral data, followed by CAD design and one‑piece 3D printing. It can be used as a complete denture or removable partial denture to replace missing teeth and associated structures. The 3D‑printed denture offers a precise fit, natural aesthetics, and a comfortable wearing experience. Highlights: -Digital workflow ensures accuracy, efficiency, and rapid delivery -One‑piece printing eliminates the need for adhesives -Customizable crown shades for natural aesthetic results -Excellent fit and wearing comfort

3D Printed Dental Implant

This product is a dental implant manufactured using 3D printing technology, typically with metal powder via a laser melting process. It features a dense core to ensure overall strength and a porous surface to stimulate bone growth. 3D printing enables high design flexibility, allowing personalized customization. The implant serves as a replacement for the natural tooth root, providing stable support for the suprastructure. Highlights: -Dense core + porous surface design balances strength and osseointegration -3D printing enables precise fabrication of complex microstructures -Titanium alloy offers outstanding mechanical properties and biocompatibility -Personalized design to meet various clinical needs

3D Printed Removable Partial Denture Framework

This product is manufactured using 3D printing technology, based on intraoral scanning and CAD design, to precisely shape complex structures including clasps, connectors, and bases. The framework supports artificial teeth and is retained in the oral cavity via clasps or other retainers, serving to restore partial edentulism. Compared with traditional casting, the 3D‑printed framework offers a better fit, lighter weight, and shorter production lead time. Highlights: -Precisely 3D‑printed for an excellent fit to oral tissues, ensuring stable and comfortable wear -Lightweight design (especially with PEEK material) reduces foreign‑body sensation -Complex clasps and connectors are formed in a single piece without welding, ensuring structural integrity -Flexible material options -Digital workflow shortens production turnaround, significantly reducing patient waiting time

3D Printed Cultural & Creative Products / Figurines / Toys

The product range covers various categories including full‑color figurines, collectible figures, articulated models, art toys, and more. Using processes such as photopolymerization and full‑color 3D printing, and employing eco‑friendly materials, it can achieve complex shapes, fine details, and rich colors, satisfying demands for personalized customization and creative expression. Highlights: -Accurately reproduces complex shapes and fine details -Supports full‑color printing with rich colors and natural gradients -Supports personalized customization and rapid small‑batch production -Eco‑friendly materials, safe and non‑toxic

3D Printed Shoes

The footwear is integrally formed via 3D printing using flexible polymer materials. The sole features a biomimetic lattice structure that delivers excellent energy return and cushioning performance. 3D‑printed footwear condenses dozens of traditional shoemaking steps into a three‑step process—scan, design, print—enabling rapid customized production. Highlights: -One‑piece molding eliminates the need for adhesives, making it eco‑friendly -Biomimetic lattice structure provides over 75% energy return -Precision grid pores create natural convection channels for breathability and comfort

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