Download

MULTI-MODAL

MULTIPLE PRINTHEADS

TAILORED

EXTENSIBILITY(UPGRADEABLE)

DIGITIZATION

HIGH-PRECISION

AUTOMATIC

LARGE-FORMAT

Hybrid Gradient
Near.Field Electrospinning
Screw Extrusion
UV
DLP
FDM
Coaxial
Laser
Ultrasound
CNC
We not only offer advanced bioprinting machines, but also provide tailor-made solutions to be
your reliable partnerin research, Our service process is as follows:
Feasibility Discussion
Share your needs with us, andwe'll provide relevant case studiesto help you evaluate the feasibilityof your project.
Customized Solutions
Based on your specificrequirements, we'll design amachine that fits your needs,including the mechanicalstructure, software, and controlcircuits, ensuring a perfect matchfor your research.
Material Testing
Provide your test materials, andwe will create samples to ensurethe machine's performance meetsyour expectations. This allowsyou to verify the results beforemaking a purchase decision.
On-site Delivery &
Installation
We offer on-site deliyery andinstallation services to ensure themachine is set up smoothly andready for use.By choosing us, you're not justpurchasing equipment; you'regaining a full-support researchpartner throughout your journey!
New materials refer to structural materials with excelent properties and functicnnl materials with special characierisics that have recenly been developed orare under deveicpmen. The Dlw (pirect ink writing 3D prining technology clers unilque advanages in validating new materianls,including material diversinand inovation,personalized complex structures, rapid validalion, and cost reduclion, These benefits make Dny technology an indispensable tool in the newmaterial RaD process. By precisely coniroling printing parameters, Dlw echnology achieves fine control over the heological behavior of materials, alowingeven low-viscositly slurries to be effectively printed without additives, preserving the original properties of the materials.
Material Diversity And Innovation:
DlW technology can accommodate various types of new materials, facilitating the testing of a widerange of new materials. By combining diferent new materials, it is possible to create new compositematerials or structures with unique functions and properties
Personalized Complex Structures:
DlW technology enables precise control over shapes, sizes, and internal details of complexstructures, allowing for the design of new functions through structural modifications.
Rapid Validation:
Compared to traditional manufacturing methods, Dlw technology allows for rapid prototyping. functional validation, and shorter development cycles.
Cost Reduction:
DlW technology reduces the cost of new material testing by precisely controlling material usag minimizing waste.
Coaxial Printing of Different Materials for linner and Outer Layers
PCL + Calcium Phosphate Mixed
PDMS
Aqueous Hydrogel Mixed Materials
Liquid Crystal Elastomer (LCES)
Silicone
EVA
Recyclable Polymer Materials
TPE Materials with DifferentHardness Levels
Bamboo Powder + Carboxymethyl Cellulose
DIW 3D printing technology offers significant advantages in biomedicine, including personalized treatment, rapid manufacturing of complex structures, biocompatibility and bioactivity, and drug development and cell research. Through custom medical device fabrication, artificial organ development, cell culture, and personalized treatment via bio 3D printing, DlW technology is making important contributions to improving human health and quality of life.
Aqueous Hydrogel Bioengineering Scaffolds
Biological Tissue Engineering:
Direct ink writing 3D printing technology can be used in biological tissue engineering, such as printing artificial skin, cartilage, and bone tissues.By printing biological materials and growth factors, it is possible to construct tissue scaffolds with specific structures and functions for repairing damaged tissues and organs.
Orthopedic Implant Regenerative Materials
Custom Medical Device Manufacturing:
DIW technology can create highly personalized medical devices tailored to individual patient needs, such as artificial joints, teeth, implants, and prosthetics.
Custom Medical Device Manufacturing:
DIW technology can create highly personalized medical devices tailored to individual patient needs, such as artificial joints, teeth, implants, and prosthetics.
Hydrogel Suspension Printing
Artificial Organ Development:
DIW technology can create highly personalized medical devices tailored to individual patient needs, such as artificial joints, teeth, implants, and prosthetics.
Organ Cultivation Scaffolds
Organ Cultivation Scaffolds
Cell Culture Platforms:
DIW technology can create highly personalized medical devices tailored to individual patient needs, such as artificial joints, teeth, implants, and prosthetics.
Bioprinted Tissue Sections
Cell Culture and Drug Development:
DIW technology can create highly personalized medical devices tailored to individual patient needs, such as artificial joints, teeth, implants, and prosthetics.
Silicone Vascular Structures
Artificially Induced Blood Vessels
Cell Liquid Transfer
Personalized Orthodontic Appliances
Bone Defect Repair Implants
3D printing is considered a transformative technology in drug formulation due to its flexibility in shaping and precise dose control. Unlike traditional methods that produce homogeneous, standardized, and single-function formulations, 3D printing allows for the spatial distribution of drugs and excipients in three dimensions. This enables the creation of heterogeneous drug delivery systems with precise control over release time, speed, location, and dosage. By accommodating drug characteristics and real-world clinical pharmacokinetics, 3D printing facilitates the customization and production of personalized and innovative formulations on demand.
Advantages of 3D Printed Drug Formulations:
1.Reduced R&D Cycle: Accelerates the development process by enabling rapid prototyping and iteration of drug formulations.
2.Cost Savings: Reduces material and labor costs through efficient use of resources and streamlined production processes.
3.Small-Batch Production: Facilitates the production of small quantities for preliminary testing or niche markets without the need for large-scale manufacturing.
4.Compound Formulations:Allows for the integration of multiple drugs into a single dosage form, improving convenience and compliance.
5.Personalized Dosage and Appearance: Enables customization of both the dosage and the physical appearance of medications to meet individual patient needs.
6.Functional Design: Supports the creation of specialized release mechanisms, such as immediate release, disintegration in the mouth, gastric retention,or targeted delivery to the colon.
Protective Coated Gastric Floating Extended-Release Formulation
Food-Coated Palatable Pet Worming Tablets
Metronidazole Oral Dissolving Film
3D Printing Personalized Medication Workflow
Complex Structure Formulations
Orally Disintegrating Bilayer Tablets
Smal-Batch Production Testing
Nifedipine Immediate-Release Tablets
Partitioned Load Drug Formulation
Metformin Hydrochloride Extended-Release Tablets
Direct ink writing 3D printing technology offers significant advantages and potential in battery applications, including increased design flexibility, optimized electrode structures, shortened ion or electron diffusion paths, reduced costs, promotion of new battery development, and enhanced safety. These benefits make DiW 3D printing technology highly promising in the batery manufacturing industry.
Optimizing electrode structures:
Direct ink writing 3D printing technology allows precise control over the geometry and thickness of electrodes, thereby enhancing the electrochemical performance of batteries. This technology can produce 3D electrodes with higher surface loading density and greater aspect ratios, leading to improved areal and volumetric energy densities.
Optimizing diffusion paths:
Due to the shorter ion or electron diffusion paths in 3D-structured electrodes, batteries produced using direct ink writing 3D printing technology generally exhibit higher power density. This means that the batteries can charge and discharge more quickly, thereby enhancing their overall efficiency.
Enhancing safety:
The porous electrode structures created using direct ink writing 3D printing technology offer improved internal heat dissipation, thereby increasing battery safety. This technology helps reduce risks such as overheating and short- circuits, ensuring safer usage for consumers.
a. Direct ink writing 3D Printing of Nickel-Iron Batteries: Process and Schematic Diagram. This section describes the manufacturing process and principle diagram for nickel-iron batteries produced using direct ink writing 3D printing technology.

b. Schematic Diagram of Compressible OSS-NFB Device and Real-Time Photos of Compression and Recovery Process. The diagram illustrates the design of a compressible OSS-NFB device, while the real-time photos show the device undergoing compresion and subsequent recovery.

c.Cycle Performance under Different Compression States with Current Density: 200 mA/cm2. This section presents the cycle performance of the device under various compression states, measured at a current density of 200 mA/cm2.
(Case and images source: D. Kong, Y. Wang, S. Huang, B. Zhang, Y. V. Lim, G. J. Sim, P. Valdivia-Alvarado, Q. Ge, H. Y. Yang, ACS Nano 2020, 14, 9675.)
Printing of New Energy Battery Electrode Materials
(Note: The images are copyrighted by Professor Chen Zhangwei's team from the Additive Manufacturing Research Institute, Shenzhen University.)
DiW ink 3D printing technology ofers more personalized and precise solutions in the medical aesthetics industry, enabling refined and customized beauty treatments. This enhances the level of aesthetic technology and the effectiveness of medical beauty procedures. Key applications include the following aspects:
Customized Prosthetics and Implants:
DIW ink 3D printing technology allows for the customization of prosthetics and implants based on individual needs and characteristics. It can replace traditional methods (which often involve using autologous tissue), reducing costs and risks, and minimizing patient harm. Additionally, it enables the creation of personalized surgical plans through printing technology. For example, in the case of reconstructing malformed ears in children, traditional surgery involves sculpting the ear from the patient's ownrib bone, whereas 3D printing can offer a more tailored solution.
Personalized Dressings and Serums:
DIW ink 3D printing technology can also be used to create customized dressings and serums. Tailored to individual needs and skin issues, this technology allows for the production of personalized dressings and serums that effectively address skin problems and achieve cosmetic benefits.
Traditional: Reconstruction Of The Ear Using Rib Cartilage (Source: Department of Plastic Surgery,Tongji Hospital, Huazhong University of Science and Technology, Wuhan Third Hospital)
The process involves mixing the required special material powders, ceramic powders, and binders to create a slurry. This slurry is then printed into shape using a DIW (Direct Ink Writing) 3D printer. After printing, the model undergoes a series of post- processing steps, including debinding and high- temperature sintering, to achieve the final form. By analyzing variations in materials, composition ratios, and post-processing methods, new material formulations and functional characteristics can be developed. The DlW technology is favored by many research institutions due to its simple slurry preparation, high basic material content, streamlined process, and capability to print with multiple materials.
Adopts an Independent Dual Extruder (IDEX) structural design, a four-printhead configuration, chip redundancy design, and a reserved expansion dock design, enabling multi-modal scalability.
Supports various auxiliary forming functions and modules, including high- temperature and low-temperature print heads, high-temperature and low- temperature platforms, UV curing mod- ules, coaxial modules, and electrospinning. This provides diverse forming environments to meet the needs of different materials and forming con- ditions.
With a nozzle diameter of 0.1 mm, pressure accuracy of +0.2kPa, mass error accuracy of +3%, and mechanical positioning accuracy of +10um, it meets high-precision forming require-ments.
Equipped with imported pressure regula-tors, supports real-time control with pressure fluctuations ≤+2KPa. Digital pressure adjustment and clear experimental data provide detailed data validation for research.
Features a redundant design and reserved expansion dock, allowing for real-time upgrades to meet new demands discovered during experiments.
6gh7s