CELLINK

Name: CELLINK
Address: Långfilsgatan 1, Gothenburg, 41277, SE
Telephone: +18332355465

CELLINK is the leading bio-convergence company and a global provider of technologies, products and services to create, understand and master biology.

With a focus on the areas of bioprinting, biosciences and industrial solutions, the company develops and markets innovative technologies that enable researchers in the life sciences to culture cells in 3D, perform high-throughput drug screening and print human tissues and organs for the medical, pharmaceutical and cosmetic industries. CELLINK’s products are trusted by more than 1,800 laboratories,

including ones at all the top 20 pharmaceutical companies, are being used in more than 60 countries, and have been cited in more than 700 publications. CELLINK is creating the future of medicine. Visit cellink.com to learn more. CELLINK is listed on the Nasdaq Stockholm Main Market under CLNK B.

27/05/2026

Hello MPS World Summit 👋
We’re on the ground and ready to connect! Visit our booth ( #527) to meet Zack Graham, Devanshi Shanghavi, Wei Zhu and Shreyas Gaikwad and learn how 3D bioprinting is enabling reproducible, perfusable MPS tissue models with more realistic biological cues.

Not attending? Learn more here: https://eu1.hubs.ly/H0vGv1m0

15/05/2026

From 2D cell culture to engineered 3D microenvironments - closing the gap to human physiology.
At Life Science Live on May 19 in Utrecht, Dr. Marco Domingos (University of Manchester) will present:
“Beyond 2D Cell Culture: Engineering Skeletal Tissue Microenvironments through 3D Bioprinting.”

Working with CELLINK technologies, he will show how 3D bioprinting recreates key extracellular matrix features to enable more physiologically relevant models. By designing biomaterials and bioinks that mimic tissues like bone and cartilage, his approach supports controlled cell interactions, guided stem cell behavior, and structured 3D models that better reflect native tissue complexity.

Our partner, Future Lab Innovations will be there. Stop by their booth to connect and explore 3D bioprinting workflows further.

13/05/2026

As regulatory momentum grows around new approach methodologies (NAMs), the need for predictive, human-relevant models has never been greater. Join our upcoming webinar to explore how bioprinted human tissues are advancing new approach methodologies (NAMs) and helping reduce reliance on animal testing.

Hear from Prof. Shaochen Chen (UC San Diego) on decades of innovation in biofabrication and a new ARPA-H–funded initiative for patient-specific bioprinted liver models. Plus, Dr. Ting‑Yu Lu presents a perfusable, multi-cellular liver model combining iPSC-derived cells, advanced hydrogels, and DLP bioprinting on the BIONOVA X.

You’ll learn:
• Why bioprinting is gaining traction as a NAM
• How AI, stem cells, and bioprinting are shaping next-gen liver models
• Strategies for achieving precise tissue architecture and function

Register now: https://eu1.hubs.ly/H0vj4HJ0

05/05/2026

We’re excited to have collaborated with Sartorius on a new technical note that demonstrates an integrated workflow which addresses key bottlenecks in scaling and standardizing organoid assays.

By pairing CELLINK’s BIO ONE automated biodispenser with Sartorius | Incucyte® Live-Cell Analysis Systems, the workflow enables uniform dispensing of 5 µL cell‑laden Matrigel® domes across a 96‑well plate in ~6 minutes, while supporting continuous monitoring of organoid growth, morphology and treatment response.

To assess the workflow for real-world applications in drug discovery, we cultured hepatic organoids and successfully assessed compound-specific effects.

This approach improves reproducibility, mitigating the variability and handling limitations inherent to manual approaches. It also increases throughput, thereby supporting robust, quantitative organoid compound profiling and efficacy testing for drug discovery applications.

Read the technical note here: https://eu1.hubs.ly/H0v2tmx0

30/04/2026

As research demands more human‑relevant data, bioprinted 3D tissue models are quickly becoming the new standard.

These engineered systems enable more predictive insights across drug toxicity, disease modeling, and mechanistic studies, helping scientists bridge the gap between traditional in vitro methods and real human biology.

In our latest blog, we break down the fundamentals of tissue engineering, why it matters for modern research, and how advanced bioprinting technologies are accelerating progress across the life sciences.

Read now: https://eu1.hubs.ly/H0tZsg-0

29/04/2026

We’re excited to have collaborated with Sartorius on a new technical note that demonstrates an integrated workflow which addresses key bottlenecks in scaling and standardizing organoid assays.

By pairing CELLINK’s BIO ONE automated biodispenser with Sartorius’ Incucyte® non‑invasive Live-Cell Analysis System, the workflow enables uniform dispensing of 5 µL cell‑laden Matrigel® domes across a 96‑well plate in ~6 minutes, while supporting continuous monitoring of organoid growth, morphology and treatment response.

To assess the workflow for real-world applications in drug discovery, we cultured hepatic organoids and successfully assessed compound-specific effects.

This approach improves reproducibility, mitigating the variability and handling limitations inherent to manual approaches. It also increases throughput, thereby supporting robust, quantitative organoid compound profiling and efficacy testing for drug discovery applications.

Read the technical note here: https://eu1.hubs.ly/H0tY0sY0

22/04/2026

What if in vitro liver models could actually predict human drug response?

Researchers from Shaochen Chen Lab at UC San Diego, in collaboration with CELLINK, have taken a major step forward by developing a highly reproducible, multicellular 3D in vitro liver model using the BIONOVA X bioprinter.

By leveraging multi-material bioprinting, the team created a physiologically relevant construct combining hepatocytes and endothelial cells, enabling patient-specific tissue production and more predictive drug screening. At the core is a matrix metalloproteinase (MMP)-degradable, YISGR-functionalized PEG-norbornene (NB) hydrogel, engineered for controlled degradation and dynamic matrix remodeling.

Cultured in a microfluidic perfusion system, the resulting tissues replicate key aspects of liver architecture, exhibiting a liver lobule–mimetic structure and enhanced metabolic function.

Importantly, the multicellular model showed clinically relevant drug responses and improved predictive sensitivity for drug-induced liver injury (DILI), highlighting its potential as a powerful platform for preclinical drug evaluation and personalized medicine.

This work highlights the power of the BIONOVA X to enable rapid, reproducible biofabrication of advanced tissue models for drug screening, disease modeling, and cancer research.

Read the publication: https://eu1.hubs.ly/H0tLFsH0

Big thanks to the entire team at UC San Diego for a great collaboration, and congratulations on an outstanding publication.

14/04/2026

We are attending AACR 2026 in San Diego, April 17–22.
📍 Visit us at Booth #2260, together with our colleagues at Cellenion.

3D bioprinting is helping advance cancer research by enabling more physiologically relevant tumor models, offering precise spatial control, improved reproducibility, and the ability to better mimic key features of native tumor tissue, including vascularization.
These capabilities support more efficient and cost‑effective drug testing, generate more predictive data, and open new possibilities for patient‑specific cancer models.
Stop by our booth to learn how bioprinting is supporting next‑generation cancer research.

Can’t attend AACR?
Learn more about how bioprinting is used in cancer research and explore real examples of how our customers are applying it to build advanced tumor models and drug‑testing platforms https://eu1.hubs.ly/H0ts7Mx0

13/04/2026

For decades, 2D cell culture has been a foundational tool in research. But as expectations for physiological relevance grow, its limitations are becoming increasingly clear.

3D cell culture offers a more representative microenvironment, enabling cells to behave, interact, and respond in ways that more closely resemble in vivo conditions.

This shift is helping researchers improve the predictive value of models in areas like drug discovery and disease research, while also supporting the move away from animal models. Tools such as 3D bioprinting make it easier to construct in vitro models that better reflect human biology.

Understanding when and how to use each approach is key.

Read the blog to learn more: https://eu1.hubs.ly/H0tqxxQ0

Adress

Långfilsgatan 1
Gothenburg
41277

Telefon

+18332355465

Webbplats

http://www.cellink.com/

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