Save Time with Transient Plant Leaf Transformations

Working with plants doesnt always have to be a time-consuming process. While developing transgenic hairy root lines in tissue cultures takes half a year, and generating a transgenic plant can take even longer, a transient plant leaf transformation process could save the plant biologist some time… months, in fact.

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BioBots

BioBots is building tools to design and engineer life. Our goals are to cure disease, eliminate the organ waiting list, reverse climate change, and live on other planets. Our first products are 3D bioprinters, software, and bioinks that print 3D living tissues one layer at a time.

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MedTech

2 Small-Cap Biotech Stocks You Haven't Heard of, But Should Know About

Article | September 22, 2022

With everything that's going on with the COVID-19 pandemic, many healthcare companies have grabbed plenty of spotlight during these challenging times. At the same time, a number of otherwise promising businesses have slipped under the radar. That's especially true for small-cap biotech stocks that aren't actively involved in developing tests, vaccines or treatments for COVID-19. Vaccine developers, protective equipment producers, and healthcare service providers are all attracting plenty of attention during this pandemic, but there are just as many promising biotech stocks that aren't involved in these areas. Here are two such companies that you might have missed, but they deserve a spot on your watch list.

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MedTech

Next-Gen Genetics Cancer Therapies Creating Investment Prospects

Article | July 16, 2022

Genetic therapeutics such as genetic engineering and gene therapy are increasingly emerging as one of the most influential and transformed biotechnological solutions around the globe in recent times. These genetic solutions are being assessed across various medical domains, including cancer treatment, neurology, oncology, and ophthalmology. Citing the trend, the genetics industry is estimated to experience a tsunami of approvals, with over 1,000 cell and gene therapy clinical trials currently underway and over 900 companies worldwide focusing on these cutting-edge therapies. Growing Cancer Encourages Advancements in Genetic Technologies With the surging cases of cancers such as leukemias, carcinomas, lymphomas, and others, patients worldwide are increasing their spending on adopting novel therapeutic solutions for non-recurring treatment of the disease, such as gene therapy, genetic engineering, T-cell therapy, and gene editing. As per a study by the Fight Cancer Organization, spending on the treatment of cancer increased to $200.7 billion, and the amount is anticipated to exceed $245 billion by the end of 2030. Growing revenue prospects are encouraging biotechnology and biopharmaceutical companies to develop novel genetic solutions for cancer treatment. For instance, Bristol-Myers Squibb K.K., a Japanese pharmaceutical company, introduced a B-cell maturation antigen (BCMA)-directed chimeric antigen receptor (CAR) T cell immunotherapy, Abecma, for the treatment of relapsed or refractory (R/R) multiple myeloma in 2022. Amid a New Market: Genetics Will Attract Massive Investments Despite several developments and technological advancements, genetics is still considered to be in a nascent stage, providing significant prospects for growth to the companies that are already operating in the domain. Genetics solutions such as gene therapies, gene editing, and T-cell immunotherapy are emerging as highly active treatments across various medical fields, resulting in increasing research and development activities across the domain, drawing significant attention from investors. Given the potential of genetic treatments and the focus on finding new ways to treat cancer and other related diseases, it's easy to understand why companies are investing in the domain. For instance, Pfizer has recently announced an investment of around $800 million to construct development facilities supporting gene therapy manufacturing from initial preclinical research through final commercial-scale production. Due to these advancements, cell and gene therapies are forecast to grow from $4 billion annually to more than $45 billion, exhibiting growth at a 63% CAGR. The Future of Genetics Though there is a significant rise in advancement in genetic technologies and developments, the number of approved genetic treatments remains extremely small. However, with gene transfer and CRISPR solutions emerging as new modalities for cancer treatment, the start-up companies will attract a growing amount and proportion of private and public investments. This is expected present a tremendous opportunity for biopharma and biotechnology investors to help fund and benefit from the medical industry's shift from traditional treatments to cutting-edge genetic therapeutics in the coming years.

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MedTech

Nanostructures: Emerging as Effective Carriers for Drug Delivery

Article | July 12, 2022

Natural remedies have been employed in medicine since antiquity. However, a large number of them fail to go past the clinical trial stages. In vivo instability, poor solubility and bioavailability, a lack of target-specific delivery, poor absorption, and side effects of the medication are only a few of the problems caused by the use of large-sized materials in drug administration. Therefore, adopting novel drug delivery systems with targeted medications may be a solution to address these pressing problems. Nanotechnology has received tremendous attention in recent years and has been demonstrated to help blur the boundaries between the biological and physical sciences. With great success, it plays a vital part in enhanced medication formulations, targeted venues, and controlled drug release and delivery. Limitations of Traditional Delivery Trigger the Adoption of Nanoparticles The field of nanotechnology and the creation of drug formulations based on nanoparticles is one that is expanding and showcasing great potential. It has been thoroughly researched in an effort to develop new methods of diagnosis and treatment and to overcome the limitations of several diseases' current therapies. As a result, nanoparticles are being used to improve the therapeutic effectiveness and boost patient adherence to treatment by increasing medication bioavailability, drug accumulation at a particular spot, and reducing drug adverse effects. The nanoparticles could be transformed into intelligent systems housing therapeutic and imaging agents by manipulating their surface properties, size, correct drug load, and release with targeted drug delivery. Nanostructures facilitate the release of combination medications at the prescribed dose since they remain in the blood circulation system for a long time. Therefore, they result in fewer plasma fluctuations with decreased side effects. Due to their nanoscale, these structures can easily enter the tissue system, promote the absorption of drugs by cells, make medication administration more effective, and ensure that the medicine acts at the targeted location. The Way Ahead Nanomedicine and nano-delivery systems are a comparatively new but fast-evolving science in which nanoscale materials are used as diagnostic tools to deliver drug molecules at precisely targeted sites in a controlled manner. It is finding applications for the treatment of diseases such as cardiovascular, neurodegenerative, cancer, ocular, AIDS, and diabetes, among others. With more research and technological advancement, these drug delivery solutions will open up huge opportunities for companies that work with them.

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MedTech

Data Analytics: A Groundbreaking Technology in Biotech

Article | July 20, 2022

Biotechnology is a vast discipline of biology that employs diverse biological systems to create solutions that can significantly alter the ways in which they operate across various domains. That said, biotechnology is not a new notion. It has existed for millennia, with ancient civilizations using its earliest incarnations to cultivate crops and create alcoholic beverages. Today, the biotechnology industry has developed by leaps and bounds and has amassed a vast quantity of scientific data through study and research. Given the importance of data in the biotechnology business, it is not difficult to understand why biotech companies utilize data analytics. Modern data analytics tools have made it possible for researchers in the biotech industry to build predictive analytics models and gain knowledge about the most efficient approaches to accomplish their desired goals and objectives. Data analytics is increasingly being adopted by biotech businesses to better understand their industry and foresee any problems down the road. How is Data Analytics Revolutionizing Fields in Biotechnology? Today's business and scientific fields greatly benefit from data. Without the analysis of vast information libraries that provide new insights and enable new innovations, no industry can really advance. Being highly reliant on big data analytics, biotech is not an exception in this regard. With the tools and methods that help scientists systematize their findings and speed up their research for better and safer results, data analytics is making deeper inroads into the biotechnology industry. It is emerging as a crucial link between knowledge and information and is extensively being used for purposes other than just examining the information that is already available. The following are a few of the cutting-edge biotechnology applications of data analytics Genomics and Disease Treatment Pharmaceutical Drug Discovery Drug Recycling and Safety Agriculture and Agri-products Environmental Damage Mitigation Data Analytics Possibilities in Biotechnology With data analytics becoming an integral part of how biotech businesses operate, biotechnologists and related stakeholders need to understand its emergence and crucial role. Data analytics has opened new frontiers in the realm of biotechnology. Thanks to developments in data analytics, research and development activities that once took years may now be accomplished in a matter of months. Also, now scientists have access to biological, social, and environmental insights that can be exploited to create more effective and sustainable products. By understanding the importance of data-related tools and techniques applications, biotech companies are aiming to invest in the popularizing technology to stay updated in the fast-paced biotechnology industry.

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Spotlight

BioBots

BioBots is building tools to design and engineer life. Our goals are to cure disease, eliminate the organ waiting list, reverse climate change, and live on other planets. Our first products are 3D bioprinters, software, and bioinks that print 3D living tissues one layer at a time.

Related News

Avantium Builds 10-Ton Demonstration Plant to Produce Bioplastics

Labiotech.eu | November 07, 2019

The Dutch bioplastics company Avantium has opened a demonstration plant capable of producing 10 tons per year of mono-ethylene glycol (MEG), a compound used to make plastics, using plants as the starting material. Construction of Avantium’s plant began at Chemie Park Delfzijl, the Netherlands, last year. The plant will extract carbohydrates from agricultural waste and crops such as sugar beet, and then use a chemical process called hydrogenolysis to turn them into MEG, an essential ingredient in textiles and plastic bottles. This plant will model the manufacturing process and allow early troubleshooting. Avantium aims to have a fully commercial plant up and running by 2024. At present, 99% of MEG comes from the petrochemical industry, which generates high greenhouse gas emissions. Avantium aims to reduce society’s reliance on non-renewable fossil fuels by instead producing the material from crops and unwanted plant waste. The company estimates that its technology could reduce carbon emissions by 70% compared with traditional sources of MEG.

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The Pectin Is Protectin’

Technology Networks | October 25, 2019

Aluminum toxicity has long been known to damage plant cells and inhibit the growth of plants. Aluminum is widely found in soils that are too acidic, and as human activities have increased soil acidity across the globe, aluminum toxicity has become a leading cause of low crop yield worldwide. While the effect of aluminum on plants is widely known, precisely how aluminum enters plant cells and causes harm is not well understood. In a new study published in Frontiers in Plant Science, researchers at the University of Tsukuba have found that an integral part of a plant’s cell wall may play a role in protecting rice plants from soil aluminum. The study focused on Oryza sativa, a species of rice widely grown in Asiatic countries. The group took advantage of a mutant strain of the rice called star1 (Sensitive To Aluminum Rhizotoxicity 1). As its name suggests, the mutant is highly sensitive to the toxic effects of aluminum, and its root tips grow very poorly when aluminum is in the soil. The mutant strain allowed the researchers to piece apart how rice plant cells respond, at the molecular level, to aluminum. “Earlier work suggested that the cell wall somehow plays a mechanistic role in aluminum susceptibility, including a possible role by pectin,” says Hiroaki Iwai, lead author of the study. “We focused on pectin because it is a major polysaccharide component of the cell wall, and because prior evidence suggests that the sensitivity of star1 to aluminum might be related to a pectin deficiency.”

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New dairy cattle breeding method increases genetic selection efficiency

phys.org | July 05, 2019

Brazilian scientists at Sao Paulo State University (UNESP) collaborating with colleagues at the University of Maryland and the United States Department of Agriculture (USDA) have developed a dairy cattle breeding method that adds a new parameter to genetic selection and conserves or even improves a population's genetic diversity. The study, which is published in Journal of Dairy Science, was funded by the São Paulo Research Foundation—FAPESP and USDA. Besides genetic value associated with milk, fat and protein yields, the new method also takes into consideration the variance in gametic diversity and what the authors call "relative predicted transmitting ability," defined as an individual animal's capacity to transmit its genetic traits to the next generation based on this variance."Not all progeny of highly productive animals inherit this quality. The new method selects animals that will produce extremely productive offspring," said Daniel Jordan de Abreu Santos, who conducted the study while he was a postdoctoral fellow at UNESP's School of Agricultural and Veterinary Sciences (FCAV) in Jaboticabal, São Paulo State.

Read More

Avantium Builds 10-Ton Demonstration Plant to Produce Bioplastics

Labiotech.eu | November 07, 2019

The Dutch bioplastics company Avantium has opened a demonstration plant capable of producing 10 tons per year of mono-ethylene glycol (MEG), a compound used to make plastics, using plants as the starting material. Construction of Avantium’s plant began at Chemie Park Delfzijl, the Netherlands, last year. The plant will extract carbohydrates from agricultural waste and crops such as sugar beet, and then use a chemical process called hydrogenolysis to turn them into MEG, an essential ingredient in textiles and plastic bottles. This plant will model the manufacturing process and allow early troubleshooting. Avantium aims to have a fully commercial plant up and running by 2024. At present, 99% of MEG comes from the petrochemical industry, which generates high greenhouse gas emissions. Avantium aims to reduce society’s reliance on non-renewable fossil fuels by instead producing the material from crops and unwanted plant waste. The company estimates that its technology could reduce carbon emissions by 70% compared with traditional sources of MEG.

Read More

The Pectin Is Protectin’

Technology Networks | October 25, 2019

Aluminum toxicity has long been known to damage plant cells and inhibit the growth of plants. Aluminum is widely found in soils that are too acidic, and as human activities have increased soil acidity across the globe, aluminum toxicity has become a leading cause of low crop yield worldwide. While the effect of aluminum on plants is widely known, precisely how aluminum enters plant cells and causes harm is not well understood. In a new study published in Frontiers in Plant Science, researchers at the University of Tsukuba have found that an integral part of a plant’s cell wall may play a role in protecting rice plants from soil aluminum. The study focused on Oryza sativa, a species of rice widely grown in Asiatic countries. The group took advantage of a mutant strain of the rice called star1 (Sensitive To Aluminum Rhizotoxicity 1). As its name suggests, the mutant is highly sensitive to the toxic effects of aluminum, and its root tips grow very poorly when aluminum is in the soil. The mutant strain allowed the researchers to piece apart how rice plant cells respond, at the molecular level, to aluminum. “Earlier work suggested that the cell wall somehow plays a mechanistic role in aluminum susceptibility, including a possible role by pectin,” says Hiroaki Iwai, lead author of the study. “We focused on pectin because it is a major polysaccharide component of the cell wall, and because prior evidence suggests that the sensitivity of star1 to aluminum might be related to a pectin deficiency.”

Read More

New dairy cattle breeding method increases genetic selection efficiency

phys.org | July 05, 2019

Brazilian scientists at Sao Paulo State University (UNESP) collaborating with colleagues at the University of Maryland and the United States Department of Agriculture (USDA) have developed a dairy cattle breeding method that adds a new parameter to genetic selection and conserves or even improves a population's genetic diversity. The study, which is published in Journal of Dairy Science, was funded by the São Paulo Research Foundation—FAPESP and USDA. Besides genetic value associated with milk, fat and protein yields, the new method also takes into consideration the variance in gametic diversity and what the authors call "relative predicted transmitting ability," defined as an individual animal's capacity to transmit its genetic traits to the next generation based on this variance."Not all progeny of highly productive animals inherit this quality. The new method selects animals that will produce extremely productive offspring," said Daniel Jordan de Abreu Santos, who conducted the study while he was a postdoctoral fellow at UNESP's School of Agricultural and Veterinary Sciences (FCAV) in Jaboticabal, São Paulo State.

Read More

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