The context appears to be related to genetics or biotechnology. The image shows a stylized representation of a DNA double helix, with a glowing and abstract blue background. This suggests themes such as genetic research, molecular biology, or advances in medical science.

Published: March 16, 2026 / Updated undefined ago

Japan’s Bioeconomy Breakthrough: Turning World-Class Science into Global Business

In Japanese, the word “shinobi” evokes the ninja — blending into the background, unseen. Today, that same idea is inspiring a breakthrough in regenerative medicine.

Author: METI

Shinobi Therapeutics, a Japan-U.S. biotech company rooted in research at Kyoto University and University of California San Francisco (UCSF), is developing “hypoimmune” stem cells designed to evade immune rejection. By rendering transplanted cells effectively invisible to the immune system, the company aims to unlock the next generation of off-the-shelf cell therapies for cancer and beyond.

Shinobi Therapeutics shows how Japan is rewriting its biotechnology narrative — from a nation known primarily for research excellence to one defined by speed, scale and successful commercialization. Through targeted government funding, venture capital partnerships and strengthened production capacity, the country is accelerating the implementation of a bioeconomy and positioning itself as a global hub where breakthrough science becomes scalable business.

The image describes the Katana platform, which is central to Shinobi Therapeutics' next-generation cell therapies. Katana enables scalable and adaptable therapies for solid tumors and autoimmune diseases by integrating immune evasion, armoring, TME modulation, and customizable antigen specificity. The process starts with iPSC differentiation and gene editing to create a master iPSC Katana cell bank. Multiple therapeutic products are then generated by introducing different CARs or TCRs, resulting in expanded therapeutic options.
Figure: iPS cell therapies that evade the immune system © Shinobi Therapeutics  

Shinobi Therapeutics’ ninja stem cells trace their origins to the CiRA Foundation, a public-interest spinoff of Kyoto University. By combining a proprietary hypoimmune iPS (induced pluripotent stem) cell platform with mass-expansion technology, the company has unlocked large-scale production of tumor-targeting killer T cells. Conventional cell therapies rely on harvesting and modifying a patient’s own cells, a time-consuming process that can cost more than ¥30 million (approximately US$450,000) per treatment. Shinobi’s allogeneic approach seeks to shorten the time from diagnosis to therapy while reducing costs dramatically, potentially expanding access worldwide.

Since 2022, Shinobi has conducted clinical planning in Japan and the US while maintaining its research and development bases in Kyoto, Shonan – a seaside area south of Tokyo – and South San Francisco. Backed by leading global venture capital firms and supported by Japanese public funding, the company represents a new model of cross-border collaboration — a Japan–U.S. integrated team working to deliver cutting-edge cell therapies at scale.

A National Strategy to Bridge the “Valley of Death”

Japan has long ranked among the world’s leaders in life sciences research, including regenerative medicine. Yet commercialization has often lagged behind scientific discovery. Drug development demands long timelines, substantial capital and tolerance for high risk. Many promising ventures have stalled before reaching the market — a gap often described as the “valley of death.”

To close that gap, the Ministry of Economy, Trade and Industry (METI) launched the Bioeconomy Strategy in 2019, with the goal of realizing the world’s most advanced bioeconomy society by 2030. Backed by approximately ¥450 billion in concentrated public investment, the strategy promotes bio-manufacturing as a national growth engine while addressing social challenges such as healthcare sustainability.

The image illustrates a support system for pharmaceutical startups facilitated by AMED (Japan Agency for Medical Research and Development).

Registered VCs (Venture Capitals) with proven track records in drug discovery are registered with AMED.

These VCs provide investment and hands-on support to pharmaceutical startups.

AMED also provides subsidies to startups.

Hands-on support is tailored to the growth stage of the startup, covering management, development, technology, and regulatory affairs.

The process aims to foster innovation and growth in pharmaceutical startups through financial and strategic support from experienced VCs and AMED.
Figure: Program Scheme for Strengthening Program for Pharmaceutical Startup Ecosystem (Source: Strengthening Program for Pharmaceutical Startup Ecosystem | Japan Agency for Medical Research and Development)  

A key initiative is the Drug Discovery Venture Ecosystem Enhancement Program, introduced in 2021. Under this framework, biotech startups that secure funding from government-certified domestic or international venture capital firms can receive substantial additional public subsidies. By amplifying private capital and sharing early-stage risk, the program is designed to accelerate commercialization and strengthen Japan’s startup ecosystem.

Shinobi’s success in attracting Silicon Valley investment while leveraging public support illustrates how policy and entrepreneurship are converging. Japan’s ambition is not only to lead in research, but also to compete globally in execution.

Strengthening Manufacturing: PorMedTec and the CDMO Push

This image shows a laboratory technique involving the manipulation of cells or embryos under a microscope. Specifically, it depicts a process where a fine glass pipette is used to inject material into a cell or embryo, while another pipette holds it in place. This is commonly seen in procedures such as in vitro fertilization (IVF), genetic engineering, or stem cell research, where precise control and manipulation of cells is required for research or therapeutic purposes.
Somatic Cell Nuclear Transfer for Cloning Organ Donor Pigs (Provided by PorMedTec)

Scientific breakthroughs alone do not create industries. Manufacturing capacity — particularly in highly regulated fields such as regenerative medicine — is equally essential. Recognizing this, the Japanese government established a regenerative CDMO (Contract Development and Manufacturing Organization) subsidy program in fiscal 2024, allocating ¥38.3 billion over four years to reinforce end-to-end manufacturing capabilities.

One beneficiary is PorMedTec, a Meiji University spinout specializing in cloning technology to produce donor pigs suitable for xenotransplantation — the transplantation of animal organs into humans. With global organ shortages worsening, xenotransplantation is seen as a promising solution. However, it requires sophisticated genetic modification and tightly controlled production systems.

This image shows a laboratory or medical setting where several individuals are working with specialized equipment. They are using isolation chambers with built-in gloves, likely to handle sensitive or hazardous materials in a sterile environment. The workspace is equipped with various medical and laboratory supplies, indicating a focus on safety and precision. The scene suggests procedures related to infection control, research, or medical treatment requiring containment.
Production of Donor Pigs Using Sterile Isolators (Provided by PorMedTec) 

In 2024, PorMedTec successfully cloned genetically modified pig cells originally developed by U.S.-based eGenesis, achieving the first reproduction of such an advanced gene-edited donor pig outside the United States. The milestone underscores Japan’s growing capabilities in next-generation biomedical manufacturing.

The company plans to scale annual production to several hundred pigs and aims to initiate its first clinical xenotransplantation trial in Japan by fiscal 2027. Longer term, it seeks to position Japan as a regional export hub for donor pigs meeting stringent global safety standards, particularly serving Asian markets.

By strengthening CDMOs, Japan is addressing a critical bottleneck. Startups often lack the resources to develop clinical-grade production processes or commercial-scale manufacturing. A robust production ecosystem ensures that innovation moves efficiently from laboratory to patient.

The image illustrates the step-by-step production process for creating xenotransplantation donor pigs. This process enables the transplantation of organs from pigs to humans and addresses the shortage of human organ donors. The steps are:

Master Cell: Selection and preparation of master cells for cloning.

Cloning: Creating cloned embryos from these cells.

Cryopreservation: Freezing embryos for preservation.

Surrogate Pig Mother Pregnancy: Implanting embryos into surrogate pig mothers.

Donor Pig Birth: Birth of donor pigs.

Raising Donor Pig: Growing and caring for donor pigs.

Organ Removal: Harvesting organs (heart, kidney, liver) from donor pigs.

Organ Transplantation: Transplanting these organs into human recipients.

This process is designed to produce pigs suitable for organ transplantation into humans.
Figure: Production Process for Xenotransplantation Donor Pigs  

Government’s Evolving Role in Deep Tech

Biotechnology exemplifies “deep tech”: long development cycles, high uncertainty and significant capital requirements. Without sustained support, even breakthrough technologies can falter before commercialization.

Governments in the United States, Europe and China are investing heavily in biotech for reasons of competitiveness and economic security. Japan is taking a similar view. Recent global health crises highlighted the risks of insufficient domestic capacity in life sciences and biomanufacturing.

METI has therefore embraced a broader role — not merely as regulator, but as ecosystem builder. Supporting venture capital, reinforcing manufacturing infrastructure and strengthening industry–academia collaboration are now central pillars of policy. The aim is systemic transformation: creating conditions in which startups can survive the valley of death and grow into globally competitive enterprises.

“As emergencies like the pandemic have shown, neglecting to promote the bioindustry industry could potentially cause national disruption,” says Hiroya Hirose, Director of the ministry’s Biochemical Industry Division. “METI is determined to seriously engage with the bioindustry.”

The image shows a person in a business suit and red tie, seated in an office environment with large windows in the background. The individual appears to be engaged in conversation or discussion, gesturing with one hand. The setting suggests a formal or professional meeting.
Hiroya Hirose, Director of the Biochemical Industry Division (Bio Division) (Source: METI Journal ONLINE) 

Toward a Globally Integrated Bioeconomy

The global race in biotechnology will not be won by discovery alone, but by the ability to manufacture and deliver therapies safely, quickly and affordably at scale. Scientific excellence must be matched by production capacity, coordinated supply chains and sustained investment if innovation is to translate into meaningful impact on patients and healthcare systems worldwide.

Japan’s bioeconomy strategy reflects that reality. By aligning world-class research with venture capital, manufacturing infrastructure and proactive government policy, the country is building an integrated ecosystem designed to close the gap between invention and commercialization — and to compete not only in breakthroughs, but in delivery.

More from this series

    Disclaimer: The Reuters news staff had no role in the production of this content. It was created by Reuters Plus, the brand marketing studio of Reuters. To work with Reuters Plus, contact us here.