The term will serve as a unifying concept leading to “smart cells” of plants and microorganisms by combining genome analysis, genome editing and metabolic engineering of cells supported by robotics, cloud computing, big data informatics and artificial intelligence. These technologies will allow to modify living cells and improve genomic selection for a wide range of applications in medicine, energy, materials and agriculture. Target organisms will include agricultural plants, livestock, fish and silkworms, and microorganisms used in the production of fermented food, fuel or speciality products, including process scaling (もの作りmonozukuri = make things).
Details have been summarized in a 44 page report prepared in June 2019 for the EU – Japan Centre, Brussels https://www.eu-japan.eu
The term will serve as a unifying concept leading to “smart cells” of plants and microorganisms by combining genome analysis, genome editing and metabolic engineering of cells supported by robotics, cloud computing, big data informatics and artificial...read more
Within a comprehensive alliance for business development of microalgae, both companies will cover 1. Development of biofuels business (“Green Oil Japan”), 2. R&D of micro algae culture technology, 3. Use of algae for foods and cosmetics, and 4. Production of...read more
Machines will learn about human communication from data sets including speech, voice, gaze and body expressions: NEDO and Tokyo Denki University
In a program on next-generation AI and robot core technologies, cameras, microphones and sensors will collect abundant data from a group of students involved in discussions, such as remarks, facial expressions, gestures such as arms rising and falling, and gaze. By...read more
Toyota-led consortium reaches > 50 % net maximum thermal efficiency in both gasoline and diesel cars
A Japanese R&D consortium under the Japanese Agency of Science Technology and led by Toyota estimates that even in 2040, in spite of the advance of electric vehicles, internal combustion engines will be installed in about 89% of the world's total cars, including...read more
The caterpillar larvae of bagworm moths (Tineoidea, jp. Minomushi) form bags f from silk and bamboo material. In collaboration with the National Agriculture Research Organization, Kowa Co. has managed to isolate long fibers from this network, without killing the...read more
NEDO has started a new program integrating former projects on microalgae biojet fuel (see: IHI and and biomass hydrothermal gasification with Showa Shell Oil, a company which commercializes jet fuel already. Partners will be 5 companies and the Japan Aerospace...read more
During a technical presentation, Kao presented a number of innovations including the finding that a wide variety of undegraded RNA can be isolated from sebum. Kao expects that this finding will help analyze early diseases such as atopic dermatitis even before symptoms...read more
The production capacity of the demonstration plant is 125 kL per year, and the manufacturing cost is about 10,000 yen/L. A commercial plant scheduled for 2025 will raise the production capacity 20 fold, aiming at 250,000 kL per year. Currently, raw material cost of...read more
On October 9, METI held a pitch contest on products designed to support aging people (“First Well-Aging Society Summit Asia-Japan”). The following eight companies were selected as finalists: GYENNO Technologies, Israel: electronic spoon "GYENNO SPOON" for patients...read more
Nagoya University group develops contact lens for self-sustained continuous blood glucose monitoring
Associate Professor Kiichi NIITSU of the Graduate School of Engineering, Nagoya University and his group have developed a miniaturized blood glucose sensor in form of a contact lens. It contains a solid-state element of 0.6 millimeter square that performs power...read more
In the concept car, which is jointly developed by Toray, Mitsubishi Chemical, Sumitomo Chemical, AGC, Bridgestone, polymers will constute 47 % of the car, reducing the vehicle weight to 850 kg. The car has an egg-shaped cabin and a separate front wheel cover, a large...read more
According to a survey by Nikkei Biotech, there are now seven cases of doctor-initiated clinical trials based in iPS cells in Japan. The most recent one is Jun Takahashi of CiRA’s clinical trial, in collaboration with Dainippon Sumitomo Pharma, using heterologous...read more
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NEDO has announced that acetylated ligno cellulose nanofiber (CNF) show high biodegradability (~90% in the OECD TG301C test), bringing this material closer to wide applications. CNF are cellulose fibers with a diameter of 3 – 10 nm obtained from woody biomass such as bamboo or other wood. They are already produced by companies such as Nippon Paper at a scale of several 100 tons. Through acetylation and continuous melt-kneading, CNF-reinforced resin materials can be produced which show high thermostability and are lighter and stronger than steel. Their CNF component is biodegradable. A CNF-based composite material, Starcel®from Kyoto’s PMC Corp., is already used for the soles of running shoes Gel-Kayano®25 produced by ASICS Co., a major Japanese sport shoes manufacturer with global reach.
NEDO news release, August 8, 2019
NEDO news release, June 1, 2018
JBA’s Bioindustry Award 2019 goes to Kaneka and RIKEN researchers for the development of a PHBH polymer biodegradable on soil and in seawater
The poly-hexanoate-butyrate (PHBH) copolymer is produced by Kaneka from plant oil using a recombinant strain of Cupriavidus necator at a capacity of currently 1,000 tons, with plans to increase production to 5,000 and later to 100,000 tons a year. PHBH materials decompose not only on soil, but also in seawater (90% within 6 months at 30°C) and have obtained the “OK Biodegradable Marine” certificate from TÜV AUSTRIA Belgium NV. The biopolymer-producing strain is based on joint research by Yoshiharu Doi, former Professor of the Tokyo Institute of Technology and Director at RIKEN, and five Kaneka researchers who will share the award of 3 million ¥ (~25,000 €).
JBA news release, July 29, 2019
Mitsubishi’s Life Science Institute (LSI) will start clinical trial on treatment of spinal cord injury with Muse cells
LSI announced that a domestic clinical trial for spinal cord injury in the subacute phase will be started using the Muse cell product “CL2020”.. The company has been conducting clinical trials already for three other diseases, acute myocardial infarction, cerebral infarction, and epidermolysis bullosa, and aims to apply for approval in 2020 and 2021 for any of the four diseases. Muse cells are pluripotent stem cells discovered by Prof. Mari Dezawa of Tohoku University. They occur in mesenchymal stem cells (MSC) of bone marrow and other organs, and they can differentiate into any ectoderm, mesoderm or endoderm. They can be stored through cryopreservation.
Mitsubishi LSI news release, July 10, 2019
The “smart cell industry” program of NEDO (2016-2020) aims to produce industrial materials from plants and microorganisms in economically viable yields based on metabolic engineering and synthetic biology. The five new topics (2019-2020) are
- Microbial production of polyamide materials (Toray)
- Cholesterol esterase derived from recombinant Burkholderia stabilis (Asahi Kasei Pharma)
- Microbial production of ergothioneine, a rare amino acid (Nagase Sangyo)
- Soy sauce koji mold with high content of long-chain ceramide (Fukuoka Soy Sauce Brewing Association)
- Enzyme engineering for production of chemicals with high added value (Amano Enzymes)
NEDO news release, May 7, 2019
High yield production of tetrahydropapaveroline, a pharmaceutical raw material, using synthetic biology and metabolic engineering
The group of Akihiko KONDO at Kobe University has used computer simulations, newly designed metabolic pathways and introduction of an engineered silkworm enzyme into E. coli to produce tetrahydropapaveroline (THP), a precursor compound of various benzylisoquinoline alkaloids which are used as analgesics. The project was carried out within NEDO’s “smart cell industry” program.
NEDO news release, May 7, 2019
Nature Communications (2019) DOI: 10.1038/s41467-019-09610-2
As indicated by Koichi AKAISHI, Chief Policy officer of the Cabinet Office, the government’s new bio-strategy will include support of company investments in the following 10 areas:
(1) high-performance biomaterials
(3) sustainable primary production systems (agriculture)
(4) organic waste and organic wastewater treatment
(5) life improvement, healthcare and functional food
(6) digital medicine
(7) bioproduction systems (medicine, regenerative medicine, cell and gene therapy)
(8) bioproduction system (industrial products)
(9) bioanalysis and research tools
(10) large-size wood buildings
There will be a roadmap for regulations, standards and standardization necessary for market creation in each area, to be published in December 2019.
Nikkei Biotech news release, May 31, 2019
RIKEN held an opening ceremony on April 19, 2019, for a collaborative laboratory on natural products and chemical biology at Hangzhou Future Science and Technology Park. The collaborative laboratory will identify useful substances from natural compounds collected from microorganisms and plants, and conduct research that will lead to drug discovery. Since China is a Kampo/TCM country, there is a large demand for such research, and RIKEN will use this collaborative laboratory as a hub for Chinese natural drug chemistry research, as well as fostering exchange of young science and technology personnel from Japan and China.
RIKEN news release, April 26, 2019
ToMMo established after the Great Eastern Earthquake so far has analyzed whole genomes of 5000 healthy local people and about 100,000 single nucleotide polymorphisms (SNPs). Since 2016, CiRA and ToMMo started collaborative research and established healthy iPS cells from somatic cells of participants in cohort surveys linked with genomic and health information. Differentiated into various differentiated cells such as neurons and hepatocytes in order to create differentiated cells with the same genome as the participant, genome wide association analysis (GWAS) was conducted to examine the correlation between SNP and health information. The concept is to evaluate disease development risks, drug efficacy and toxicity risks using differentiated cells, and to use this healthy control group for iPS cell research on diseases. CiRA and ToMMo have now successfully established iPS cells on a trial basis from frozen peripheral blood mononuclear cells of six cohort participants. The iPS cells have all satisfied the morphological characteristics of iPS cells, and have expressed the relevant undifferentiated marker genes (NANOG, Otc3 / 4) and transcription factors.
CiRA/Kyoto University news release, April 17, 2019
Under a NEDO contract, the team of Yasushi ODORU at Kansai University has succeeded to substitute the conventional platinum catalyst for organosilicon synthesis by a catalyst based on iron oxide nanoparticles coated with DMF. The new catalyst has high activity even in small amounts, and can be recycled by temperature change. It can be used as a catalyst for various types of silane coupling agents, such as for automotive fuel-efficient tire additives.
NEDO news release, April 15, 2019
The device allows for rapid, high-precision genetic field testing, for instance early inspection of food poisoning by bacteria. The device uses a compact fluorescence detector which applies the “SELFOC” microlens developed by the company in the 2000s as a unique core technology.
Nikkei Biotech news release, April 12, 2019
The method is based on the “embryonic organ niche method” developed by the Tokyo Jikei Medical University and others. In this method, human cells are implanted at the organ development site (organ niche) of a baby pig and grown to a normal organ. Nephron precursor cells made from human iPS cells which have differentiated into glomeruli and proximal and distal tubules are injected into the fetal kidney of a genetically modified porcine fetus. The kidney primordia is then transplanted into a patient to promote the maturation of human kidney function. The program is in collaboration with Meiji University which will develop genetically modified pigs, and Bios, a startup company which has succeeded in animal experiments to regenerate functional mature kidneys using the the embryonic organ niche method
Dainippon Sumitomo news release, April 5, 2019
Spiber, a spin-out of Keio University and successful in the scale-up of spider silk production, has teamed up with Aderans, a Tokyo-based wig-maker. The two companies plan to jointly develop a new structural material for human wigs based on recombinant spider silk. Aderans will utilize its hair-related technologies to reproduce the unique feel and properties of natural hair. Spider silk does not easily break, and it is expected that the high-tech wigs can be coloured and permed.
Spiber has announced in December 2018 that they have secured Cool Japan Funds to build a new factory in Thailand which will produce several hundred tons of recombinant spider silk from 2021 on.
Spiber press release, March 19, 2019
The company is a spin-off of the University of Tokyo, using the research results of Osamu NUREKI. They develop in vivo gene therapy using adeno-associated virus (AAV) vectors for single gene diseases.
Gene Technos Science Co. shareholders have approved to make Cell Technology, acquired in January 2019, a wholly-owned subsidiary. Cell Technology has a partnership with over 2000 medical institutions across Japan to provide services for dental pulp-derived and other stem cells. It supplies such cells to companies such as Daiichi Sankyo, Eisai, Nikon and Sekisui for research and GeneTechnoscience is preparing to develop this product line further into cell therapeutics. JCR Pharma and Teijin have already implemented Phase I/II clinical tests of dental pulp-derived stem cells for the treatment of acute cerebral infarction in Japan.
Gene Techno Science news release, March 12, 2019
Nikkei Biotech news release, March 15, 2019
RIKEN and Hitachi succeed in automated culture of retinal pigment epithelial (RPE) cell sheets derived from human iPS cells
A joint research team of Hitachi and RIKEN have successfully used a completely closed automatic cell culture system for culturing RPE cell sheets derived from human iPS cells. using a culture device. By analysis of various markers it was demonstrated that these RPE cell sheets showed the same level of quality as those cultured by skilled technicians.
Hitachi news release, March 14, 2019