biotech
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For patients and healthcare professionals to properly track and manage illnesses, especially chronic ones, healthcare needs to be decentralized. It also needs to be more convenient, with a patient’s health information able to follow them wherever they go.
Redbird, a Ghanaian health tech startup that allows easy access to convenient testing and ensures that doctors and patients can view the details of those test results at any time, announced today that it has raised a $1.5 million seed investment.
Investors who participated in the round include Johnson & Johnson Foundation, Newton Partners (via the Imperial Venture Fund) and Founders Factory Africa. This brings the company’s total amount raised to date to $2.5 million.
The health tech company was launched in 2018 by Patrick Beattie, Andrew Quao and Edward Grandstaff. As a founding scientist at a medical diagnostics startup in Boston, Beattie’s job was to develop new rapid diagnostic tests. During his time in Accra in 2016, he met Quao, a trained pharmacist in Ghana at a hackathon whereupon talking found out that their interests in medical testing overlapped.
Beattie told TechCrunch that while he saw many exciting new tests in development in the U.S., he didn’t see the same in Ghana. Quao, who is familiar with how Ghanaians use pharmacies as their primary healthcare point, felt perturbed that these pharmacies weren’t doing more than transactional purchases.
They both settled that pharmacies in Ghana needed to imbibe the world of medical testing. Although both didn’t have a tech background, they realized technology was necessary to execute this. So, they enlisted the help of Grandstaff to be CTO of Redbird while Beattie and Quao became CEO and COO, respectively.
L-R: Patrick Beattie (CEO), Andrew Quao (COO) and Edward Grandstaff (CTO). Imge Credits: Redbird
Redbird enables pharmacies in Ghana to add to their pharmacy services rapid diagnostic testing for 10 different health conditions. These tests include anaemia, blood sugar, blood pressure, BMI, cholesterol, Hepatitis B, malaria, typhoid, prostate cancer screening and pregnancy.
Also, Redbird provides pharmacies with the necessary equipment, supplies and software to make this possible. The software — Redbird Health Monitoring — is networked across all partner pharmacies and enables patients to build medical testing records after going through five-minute medical tests offered through these pharmacies.
Rather than employing a SaaS model that Beattie says is not well appreciated by its customers, Redbird’s revenue model is based on the supply of disposable test strips.
“Pharmacies who partner with Redbird gain access to the software and all the ways Redbird supports our partners for free as long as they purchase the consumables through us. This aligns our revenue with their success, which is aligned with patient usage,” said the CEO.
This model is being used with more than 360 pharmacies in Ghana, mainly in Accra and Kumasi. It was half this number in 2019, which Redbird has since doubled despite the pandemic. These pharmacies have recorded over 125,000 tests in the past three years from more than 35,000 patients registered on the platform.
Redbird will use the seed investment to grow its operations within Ghana and expand to new markets that remain undisclosed.
In 2018, Redbird participated in the Alchemist Accelerator just a few months before launch. It was the second African startup after fellow Ghanaian health tech startup mPharma to take part in the six-month program. The company also got into Founders Factory Africa last April.
According to Beattie, most of the disease burden Africans might experience in the future will be chronic diseases. For instance, diabetes is projected to grow by 156% over the next 25 years. This is why he sees decentralized, digitized healthcare as the next leapfrog opportunity for sub-Saharan Africa.
“Chronic disease is exploding and with it, patients require much more frequent interaction with the healthcare system. The burden of chronic disease will make a health system that is highly centralized impossible,” he said. “Like previous leapfrog events, this momentum is happening all over the world, not just in Africa. Still, the state of the current infrastructure means that healthcare systems here will be forced to innovate and adapt before health systems elsewhere are forced to, and therein lies the opportunity,” he said.
But while the promise of technology and data is exciting, it’s important to realize that health tech only provides value if it matches patient behaviors and preferences. It doesn’t really matter what amazing improvements you can realize with data if you can’t build the data asset and offer a service that patients actually value.
Beattie knows this all too well and says Redbird respects these preferences. For him, the next course of action will be to play a larger role in the world’s developing ecosystem where healthcare systems build decentralised networks and move closer to the average patient.
This decentralised approach is what attracted U.S. and South African early-stage VC firm Newtown Partners to cut a check. Speaking on behalf of the firm, Llew Claasen, the managing partner, had this to say.
“We’re excited about Redbird’s decentralised business model that enables rapid diagnostic testing at the point of primary care in local community pharmacies. Redbird’s digital health record platform has the potential to drive significant value to the broader healthcare value chain and is a vital step toward improving healthcare outcomes in Africa. We look forward to supporting the team as they prove out their business model and scale across the African continent.”
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Immune intelligence startup Serimmune hopes to better understand the relationship between antibody epitopes (the parts of antigen molecules that bind to antibodies) and the SARS-CoV-2 virus.
The company’s proprietary technology, originally developed at UC Santa Barbara, provides a new and specific way of mapping the entire array of an individual’s antibodies through a small blood sample. They do this through the use of a bacterial peptide display — a sort of screening mechanism that can isolate plasmid DNA from antibody-bound bacteria in the sample. This DNA can then be sequenced to identify epitopes, which provide information about which antigens someone may have been exposed to, as well as how their immune system responded to them.
“It’s a very highly multiplexed and exquisitely specific way of looking at the epitopes found by antibodies in a specimen,” said Serimmune CEO Noah Nasser, who has a degree in molecular biology from UC San Diego and has previously worked for several diagnostics companies.
This week, Serimmune announced the launch of a new application of their core technology to help understand the disease states of and immune responses to SARS-CoV-2, the virus that causes COVID-19.
“So what we do is we take these antibody profiles we build, and we’re able to then map those back with about a 12 amino acid specificity to the SARS-CoV-2 proteome,” said Nasser. “And what we find is that antibody expression is highly correlated to disease state, so we can distinguish mild, moderate, severe and asymptomatic disease on the basis of antibodies that are present in the specimen.”
The more patient data Serimmune can collect, the better its core technology becomes at finding patterns across different antigen exposure and disease severity. Noticing those patterns sooner won’t only help physicians and researchers to better understand how the SARS-CoV-2 virus operates, but can also inform new approaches to diagnostics, treatments and vaccines for any antigen.
Serimmune’s launch of its new COVID antibody epitope mapping service is a way of making this data more accessible to customers like vaccine companies, government agencies and academic labs that have shown interest in better understanding the immune response to SARS-CoV-2.
“The key was to zero in on the information that researchers wanted to know and standardize that,” said Nasser. “We can actually now provide these results back in as few as two days from sample receipt.”
Beyond this new service, Serimmune also has plans to launch a longitudinal clinical study on immunity to SARS-CoV-2. Using a painless at-home collection kit, study participants send in small blood samples to Serimmune, which then uses its core technology to outline an individual immunity map.
“We provide their results back to them in the form of a personal immune landscape to COVID,” said Nasser. “And what we’re trying to do is to understand over time how that immune response changes, and what happens to that immune response on repeated exposure to COVID.”
The mapping technology is now so specific that it can tell whether a patient has antibodies from natural exposure to the SARS-CoV-2 virus or from a vaccine, he added.
While the primary focus for Serimmune remains these applications to the COVID-19 pandemic for now, Nasser also mentioned that the company has plans to move into personalized medicine, potentially offering their mapping service directly to interested patients.
“We believe that this has value to individual patients in understanding their immune status and what antigens they’ve been exposed to,” he said. Until then, Serimmune plans to continue growing its database with more patient samples.
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Antibiotic resistance is one of the biggest potential threats to global health today. But Locus Biosciences is hoping that their crPhage technology might provide a new solution.
Based in North Carolina’s Research Triangle, the startup recently announced promising phase 1b clinical trial results for their use of CRISPR-Cas3-enhanced bacteriophages as a treatment for urinary tract infections caused by escherichia coli. Led in part by former Patheon executive and current Locus CEO Paul Garofolo, the startup launched in 2015 with the goal of using a less popular application of CRISPR technology to address growing antimicrobial resistance.
CRISPR-Cas3 technology has notably different mechanisms from its more well-known CRISPR-Cas9 counterpart. Where the Cas9 enzyme has the ability to cleanly cut through a piece of DNA like a pair of scissors, Garofolo describes Cas3 more like a Pac-Man, shredding the DNA as it moves along a strand.
“You wouldn’t be able to use it for most of the editing platforms people were after,” he said, noting that meant there wouldn’t be as much competition around Cas3. “So I knew it would be protected for some time, and that we could keep it quiet.”
Garofolo and his team wanted to use CRISPR-Cas3 not to edit harmful bacteria found in the body, but to destroy it. To do this, they took the DNA-shredding mechanism of Cas3 and used it to enhance bacteriophages — viruses that can attack and kill different species of bacteria. Together, co-founder and Chief Scientific Officer Dave Ousterout — who has a PhD in biomedical engineering from Duke — thinks this technology offers an extremely direct and targeted way of killing bacteria.
“We armed the phages with this Cas3 system that attacks E. coli, and that sort of dual mechanism of action is what comes together, essentially, as a really potent way to remove just E. coli,” he said in an interview.
That specificity is something that antibiotics lack. Rather than targeting only harmful bacteria in the body, antibiotics typically wipe out all bacteria they come across. “Every time we take antibiotics, we’re not thinking about all the other parts of us that are impacted by the bacteria that do good things,” said Garofolo. But the precision of Locus Biosciences’ crPhage technology means that only the targeted bacteria would be wiped out, leaving those necessary to the body’s normal function intact.
Beyond offering this more specific approach to treatment of pathogens, or any bacteria-based disease, Garofolo and his team also suspect that their approach will also be extremely safe. Though deadly to bacteria, bacteriophages are typically harmless to humans. The safety of CRISPR in humans is well-established, too.
“That’s our secret sauce,” said Garofolo. “We can build drugs that are more powerful than the antibiotics they’re trying to replace, and they use phage, which is probably one of the world’s safest ways to deliver something into the human body.”
While this new technology could certainly help treat pathogens and infectious diseases, Garofolo hopes that indications in immunology, oncology and neurology might benefit from it too. “We’re starting to figure out that some bacteria might promote cancer, or inflammation in your gut,” he said. If researchers can identify the bacteria at the root cause of those conditions, Garofolo and Ousterout think the crPhage technology might prove to be an effective treatment.
“If we’re right about that, it’s not just about infections or antimicrobial resistance, but helping people overcome cancer or delay the onset of dementia,” Garofolo said. “It’s changing the way we think about how bacteria really help us live.”
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Planted, a startup pursuing a unique method of creating a vegetarian chicken alternative, has raised an $18 million (CHF 17 million) Series A to expand its product offerings and international footprint. With new kebabs and pulled-style faux meats available and steak-like cuts in the (literal) pipeline, Planted has begun to set its sights outside central Europe.
The company was a spinout from ETH Zurich and made its debut in 2019, but has not rested on the success of its plain chicken recipe. Its approach, which relied on using pea protein and pea fiber extruded to recreate the fibrous structure of chicken for nearly 1:1 replacement in recipes, has proven to be adaptable for different styles and ingredients as well.
“We aim to use different proteins, so that there is diversity, both in terms of agriculture and dietary aspects,” said co-founder Christoph Jenny.
“For example our newly launched planted.pulled consists of sunflower, oat and yellow pea proteins, changing both structure and taste to resemble pulled pork rather than chicken. The great thing about the sunflower proteins, they are upcycled from sunflower oil production. Hence, we are establishing a circular economy approach.”
When I first wrote about Planted, its products were only being distributed through a handful of restaurants and grocery stores. Now the company has a presence in more than 3,000 retail locations across Switzerland, Germany and Austria, and works with restaurant and food service partners as well. No doubt this strong organic (so to speak) growth, and the growth of the meat alternative market in general, made raising money less of a chore.
The cash will be directed, as you might expect for a company at this stage, towards R&D and further expansion.
“The funding will be used to expand our tech stack, to commercialize our prime cuts that are currently produced at lab scale,” said Jenny. “On the manufacturing side we look to significantly increase our current capacity of half a ton per hour to serve the increasing demand coming from international markets, first in neighboring countries and then further into Europe and overseas.”
“We will further invest in our structuring and fermentation platforms. Combining structuring technologies with the biochemical toolboxes of natural microorganisms will allow us to create ultimately new products with transformative character – all clean, natural, healthy and tasty,” said co-founder Lukas Böni in a press release.
No doubt this all will also help lower the price, a goal from the beginning but only possible by scaling up.
As other companies in this space also raise money (incidentally, rather large amounts of it) and expand to other markets, competition will be fierce — but Planted seems to be specializing in a few food types that aren’t as commonly found, at least in the U.S., where sausages, ground “beef” and “chicken” nuggets have been the leading forms of meat alternatives.
No word on when Planted products will make it to American tables, but Jenny’s “overseas” suggests it is at least a possibility fairly soon.
The funding round was co-led by Vorwerk Ventures and Blue Horizon Ventures, with participation from Swiss football (soccer) player Yann Sommer and several previous investors.
Early Stage is the premier “how-to” event for startup entrepreneurs and investors. You’ll hear firsthand how some of the most successful founders and VCs build their businesses, raise money and manage their portfolios. We’ll cover every aspect of company building: Fundraising, recruiting, sales, product-market fit, PR, marketing and brand building. Each session also has audience participation built-in — there’s ample time included for audience questions and discussion.
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A new auto-injecting pill might soon become a replacement for subcutaneous injection treatments.
The idea for this so-called robotic pill came out of a research project around eight years ago from InCube Labs — a life sciences lab operated by Rani Therapeutics Chairman and CEO Mir Imran, who has degrees in electrical and biomedical engineering from Rutgers University. A prominent figure in life sciences innovation, Imran has founded more than 20 medical device companies and helped develop the world’s first implantable cardiac defibrillator.
In working on the technology behind San Jose-based Rani Therapeutics, Imran and his team wanted to find a way to relieve some of the painful side effects of subcutaneous (or under-the-skin) injections, while also improving the treatment’s efficacy. “The technology itself started with a very simple thesis,” said Imran in an interview. “We thought, why can’t we create a pill that contains a biologic drug that you swallow, and once it gets to the intestine, it transforms itself and delivers a pain-free injection?”
Rani Therapeutics’ approach is based on inherent properties of the gastrointestinal tract. An injecting mechanism in their pill is surrounded by a pH-sensitive coating that dissolves as the capsule moves from a patient’s stomach to the small intestine. This helps ensure that the pill starts injecting the medicine in the right place at the right time. Once there, the reactants mix and produce carbon dioxide, which in turn inflates a small balloon that helps create a pressure difference to help inject the drug-loaded needles into the intestinal wall. “So it’s a really well-timed cascade of events that results in the delivery of this needle,” said Imran.
Despite its somewhat mechanical procedure, the pill itself contains no metal or springs, reducing the chance of an inflammatory response in the body. The needles and other components are instead made of injectable-grade polymers, that Imran said has been used in other medical devices as well. Delivering the injections to the upper part of the small intestine also carries little risk of infection, as the prevalence of stomach acid and bile from the liver prevent bacteria from readily growing there.
One of Imran’s priorities for the pill was to eliminate the painful side effects of subcutaneous injections. “It wouldn’t make sense to replace them with another painful injection,” he said. “But biology was on our side, because your intestines don’t have the kind of pain sensors your skin does.” What’s more, administering the injection into the highly vascularized wall of the small intestine actually allows the treatment to work more efficiently than when applied through subcutaneous injection, which typically deposits the treatment into fatty tissue.
Imran and his team have plans to use the pill for a variety of indications, including the growth hormone disorder acromegaly, diabetes and osteoporosis. In January 2020, their acromegaly treatment, Octreotide, demonstrated both safety and sustained bioavailability in primary clinical trials. They hope to pursue future clinical trials for other indications, but chose to prioritize acromegaly initially because of its well-established treatment drug but “very painful injection,” Imran said.
At the end of last year, Rani Therapeutics raised $69 million in new funding to help further develop and test their platform. “This will finance us for the next several years,” said Imran. “Our approach to the business is to make the technology very robust and manufacturable.”
Early Stage is the premier ‘how-to’ event for startup entrepreneurs and investors. You’ll hear first-hand how some of the most successful founders and VCs build their businesses, raise money and manage their portfolios. We’ll cover every aspect of company-building: Fundraising, recruiting, sales, product market fit, PR, marketing and brand building. Each session also has audience participation built-in – there’s ample time included for audience questions and discussion.
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Five years ago I landed the Solar Impulse 2 in Abu Dhabi after flying around the globe powered solely by solar energy, a first in aviation history.
It was also a milestone in energy and technology history. Solar Impulse was an experimental plane, weighing as little as a family car and using 17,248 solar cells. It was a flying laboratory, full of groundbreaking technologies that made it possible to produce renewable energy, store it and use it when necessary in the most efficient manner.
The time has come to use technology again to address the climate crisis affecting us all. As we enter the most crucial decade of climate action — and most likely our last chance to limit global warming to 1.5°C — we need to ensure that clean technologies become the only acceptable norm. These technologies exist now and they can be profitably implemented at this crucial moment.
Hundreds of clean tech solutions exist that protect the environment in a profitable way,
Here are just four innovations from our solar-powered plane that the market can start using now before it’s too late.
The building sector is one of the largest energy consumers in the world. Next to a reliance on carbon-heavy fuels for heating and cooling, poor insulation and associated energy loss are among the main reasons.
Inside Solar Impulse’s cockpit, insulation was crucial for the plane to fly at very high altitudes. Covestro, one of our official partners, developed an ultra-lightweight and insulating material. The cockpit insulation performance was 10% higher than the standards at the time because the pores in the insulating foam were 40% smaller, reaching a micrometer scale. Thanks to its very low density of fewer than 40 kilograms per cubic meter, the cockpit was ultra-lightweight.
This technology and many others exist. We now need to ensure that all market players are motivated to make hyperefficient building insulation their standard operating procedure.
Solar Impulse was first and foremost an electric airplane when it flew 43,000 km without a single drop of fuel. Its four electric motors had a record-beating efficiency of 97%, far ahead of the miserable 27% of standard thermal engines. This means that they only lost 3% of the energy they used versus 73% for combustion propulsion. Today, electric vehicle sales are soaring. According to the International Energy Agency, when Solar Impulse landed in 2016, there were approximately 1.2 million electric cars on the road; the figure has now risen to over 5 million.
Nevertheless, this acceleration is far from enough. Power sockets are still far from replacing petrol pumps. The transport sector still accounts for one-quarter of global energy-related CO2 emissions. Electrification must happen much more quickly to reduce CO2 emissions from our tailpipes. To do so, governments need to boost the adoption of electric vehicles through clear tax incentives, diesel and petrol engine bans, and major infrastructure investments. 2021 should be the year that puts us on a one-way road to zero-emission vehicles and puts thermal engines in a dead end.
To fly for several days and nights, reaching a theoretically endless flight potential, Solar Impulse relied on batteries that stored the energy collected during the day and used it to power its engines during the night.
What was made possible with Si2 on a small scale should guide the way to future-proofing power-generation systems that are made up entirely of renewable energy. In the meantime, microgrids, like those used in Si2, could benefit off-grid systems in remote communities or energy islands, allowing them to abolish diesel or other carbon-heavy fuels already today.
On a larger scale, we are looking at smart grids. If all “stupid grids” were replaced by smart grids, it would allow cities, for example, to manage production, storage, distribution and consumption of energy and to cut peaks in energy demand that would reduce CO2 emissions dramatically.
Solar Impulse’s philosophy was to save energy instead of trying to produce more of it. This is why the relatively small amount of solar energy we collected became enough to fly day and night. All the airplane parameters, including wingspan, aerodynamics, speed, flight profile and energy systems, had therefore been designed to minimize energy loss.
Unfortunately, this approach still stands out against the inefficiency of most of our energy use today. Even though the IEA found energy efficiency improved by an estimated 13% between 2000 and 2017, it is not enough. We need bolder action by policymakers to encourage investors. One of the best ways to do so is to put strict energy efficiency standards in place.
For example, California has set efficiency standards on buildings and appliances, such as consumer electronics and household appliances, estimated to have saved consumers more than $100 billion in utility bills. These measures are as good for the environment as they are for the economy.
When we used all these different innovations to build Solar Impulse, they were groundbreaking and futuristic. Today, they should define the present; they should be the norm. Next to the technologies mentioned above, hundreds of clean tech solutions exist that protect the environment in a profitable way, many of which have received the Solar Impulse Efficient Solution Label.
Just as for the Si2 technologies, we must now ensure that they enter the mainstream market. The faster we scale them, the faster we will set our economy on track to achieve the Paris Agreement goals and attain sustainable economic growth.
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Just three years after its founding, biotech startup Immunai has raised $60 million in Series A funding, bringing its total raised to over $80 million. Despite its youth, Immunai has already established the largest database in the world for single cell immunity characteristics, and it has already used its machine learning-powered immunity analysts platform to enhance the performance of existing immunotherapies. Aided by this new funding, it’s now ready to expand into the development of entirely new therapies based on the strength and breadth of its data and ML.
Immunai’s approach to developing new insights around the human immune system uses a “multiomic” approach — essentially layering analysis of different types of biological data, including a cell’s genome, microbiome, epigenome (a genome’s chemical instruction set) and more. The startup’s unique edge is in combining the largest and richest data set of its type available, formed in partnership with world-leading immunological research organizations, with its own machine learning technology to deliver analytics at unprecedented scale.
“I hope it doesn’t sound corny, but we don’t have the luxury to move more slowly,” explained Immunai co-founder and CEO Noam Solomon in an interview. “Because I think that we are in kind of a perfect storm, where a lot of advances in machine learning and compute computations have led us to the point where we can actually leverage those methods to mine important insights. You have a limit or ceiling to how fast you can go by the number of people that you have — so I think with the vision that we have, and thanks to our very large network between MIT and Cambridge to Stanford in the Bay Area, and Tel Aviv, we just moved very quickly to harness people to say, let’s solve this problem together.”
Solomon and his co-founder and CTO Luis Voloch both have extensive computer science and machine learning backgrounds, and they initially connected and identified a need for the application of this kind of technology in immunology. Scientific co-founder and SVP of Strategic Research Danny Wells then helped them refine their approach to focus on improving efficacy of immunotherapies designed to treat cancerous tumors.
Immunai has already demonstrated that its platform can help identify optimal targets for existing therapies, including in a partnership with the Baylor College of Medicine where it assisted with a cell therapy product for use in treating neuroblastoma (a type of cancer that develops from immune cells, often in the adrenal glands). The company is now also moving into new territory with therapies, using its machine learning platform and industry-leading cell database to new therapy discovery — not only identifying and validating targets for existing therapies, but helping to create entirely new ones.
“We’re moving from just observing cells, but actually to going and perturbing them, and seeing what the outcome is,” explained Voloch. This, from the computational side, later allows us to move from correlative assessments to actually causal assessments, which makes our models a lot more powerful. Both on the computational side and on the lab side, this are really bleeding edge technologies that I think we will be the first to really put together at any kind of real scale.”
“The next step is to say, ‘Okay, now that we understand the human immune profile, can we develop new drugs?’,” said Solomon. “You can think about it like we’ve been building a Google Maps for the immune system for a few years — so we are mapping different roads and paths in the immune system. But at some point, we figured out that there are certain roads or bridges that haven’t been built yet. And we will be able to support building new roads and new bridges, and hopefully leading from current states of disease or cities of disease, to building cities of health.”
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Sano Genetics, a startup with a broad mission to support personalised medicine research by increasing participation in clinical trials, has raised £2.5 million in seed funding.
The round is led by Episode1 Ventures, alongside Seedcamp, Cambridge Enterprise, January Ventures and several Europe and U.S.-based angel investors. It adds to £500,000 in pre-seed funding from 2018.
Sano Genetics says part of the new capital will be to fund free at-home DNA testing kits for 3,000 people affected by Long COVID. It will also further invest in the development of its tech platform and grow the team.
Founded in 2017 by Charlotte Guzzo, Patrick Short and William Jones after they met at Cambridge University while studying genomics as postgrads, Sano Genetics has built what it describes as a “private-by-design” tech platform to help patients take part in medical research and clinical trials. This includes at-home genetic testing capabilities, and is seeing the company support research into multiple sclerosis, ankylosing spondylitis, NAFLD and ulcerative colitis2, with a research programme for Parkinson’s disease on the agenda for later in 2021.
“For participants in medical research, the process is not user friendly,” says Sano Genetics CEO Patrick Short. “There is usually little to no benefit for participants beyond altruism, taking part is difficult and time-consuming and people are also concerned about the privacy of their sensitive genetic and medical information.
“[Therefore], for researchers in biotech, pharma and academia, it is very difficult to attract and retain research participants, which adds substantial costs and time to their research. In particular for research involving genetics and precision therapies, it is doubly challenging to find the ‘right’ patients because genetic testing is not routine in the healthcare system”.
To help solve this, Sano Genetics matches relevant participants to research via its platform. It then makes participation easier by enabling at-home genetic testing and by guiding participants through the process.
“The system is designed so users know exactly what will happen with their data, and we give them straightforward ways to control their data,” explains Short. “We keep our users engaged and involved in the research process by giving them updates on the research they have been a part of, and with free personalised content including genetic reports, and stories from other people like them on our blog”.
A typical end user is someone who has a chronic or rare disease and is using the platform to take part in research that helps them personally (e.g. access to a new therapy via a clinical trial) or to help others like them.
Meanwhile, Sano Genetics generates revenue by charging biotech and pharma companies fees to find the right patients for their studies. “The typical study for us consists of a set-up fee, a per-test fee for our at-home genetic testing and analysis, and a fee for each referral we make of an interested and eligible participant to their research study,” adds the Sano Genetics CEO.
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Healthcare startup Color has raised a sizable $167 million in Series D funding round, at a valuation of $1.5 billion post-money, the company announced today. This brings the total raised by Color to $278 million, with its latest large round intended to help it build on a record year of growth in 2020 with even more expansion to help put in place key health infrastructure systems across the U.S. — including those related to the “last mile” delivery of COVID-19 vaccines.
This latest investment into Color was led by General Catalyst, and by funds invested by T. Rowe Price, along with participation from Viking Global investors as well as others. Alongside the funding, the company is also bringing on a number of key senior executives, including Claire Vo (formerly of Optimizely) as chief product officer, Emily Reuter (formerly of Uber, where she played a key role in its IPO process) as VP of Strategy and Operations, and Ashley Chandler (formerly of Stripe) as VP of Marketing.
“I think with the [COVID-19] crisis, it’s really shone the light on that lack of infrastructure. We saw it multiple times, with lab testing, with antigen testing and now with vaccines,” Color CEO and co-founder Othman Laraki told me in an interview. “The model that we’ve been developing, that’s been working really well and we feel like this is the opportunity to really scale it in a very major way. I think literally what’s happening is the building of the public health infrastructure for the country that’s starting off from a technology-first model, as opposed to, what ends up happening in a lot of industries, which is you start off taking your existing logistics and assets, and add technology to them.”
Color’s 2020 was a record year for the company, thanks in part to partnerships like the one it formed with San Francisco to establish testing for healthcare workers and residents. Laraki told me they did about five-fold their prior year’s business, and while the company is already set up to grow on its own sustainably based on the revenue it pulls in from customers, its ambitions and plans for 2021 and beyond made this the right time to help it accelerate further with the addition of more capital.
Laraki described Color’s approach as one that is both cost-efficient for the company, and also significant cost-saving for the healthcare providers it works with. He likens their approach to the shift that happened in retail with the move to online sales — and the contribution of one industry heavyweight in particular.
“At some point, you build Amazon — a technology-first stack that’s optimized around access and scale,” Laraki said. “I think that’s literally what we’re seeing now with healthcare. What’s kind of getting catalyzed right now is we’ve been realizing it applies to the COVID crisis, but also, we started actually working on that for prevention and I think actually it’s going to be applying to a huge surface area in healthcare; basically all the aspects of health that are not acute care where you don’t need to show up in hospital.”
Ultimately, Color’s approach is to rethink healthcare delivery in order to “make it accessible at the edge directly in people’s lives,” with “low transaction costs,” in a way that’s “scalable, [and] doesn’t use a lot of clinical resourcing,” Laraki says. He notes that this is actually very possible once you reasses the problem without relying on a lot of accepted knowledge about the way things are done today, which result in a “heavy stack” versus what you actually need to deliver the desired outcomes.
Laraki doesn’t think the problem is easy to solve — on the contrary, he acknowledges that 2021 is likely to be even more difficult and challenging than 2020 in many ways for the healthcare industry, and we’ve already begun to see evidence of that in the many challenges already faced by vaccine distribution and delivery in its initial rollout. But he’s optimistic about Color’s ability to help address those challenges, and to build out a “last mile” delivery system for crucial care that expands accessibility, while also making sure things are done right.
“When you take a step back, doing COVID testing or COVID vaccinations … those are not complex procedures at all — they’re extremely simple procedures,” he said. “What’s hard is doing them massive scale and with a very low transaction cost to the individual and to the system. And that’s a very different tooling.”
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NextMind debuted its Dev Kit hardware at CES last year, but the hardware is now actually shipping, and the startup shared with me the production version to take a test drive. The NextMind controller is a sensor that reads electrical signals from your brain’s visual cortex, and translates those into input signals for a connected PC. A lot of companies have developed novel input solutions that use either eye tracking or electrical impulse input from the body, but NextMind’s is the first I’ve tried that worked instantly and wonderfully, providing a truly amazing experience of a kind that’s hard to find in the current world of relatively mature computing paradigms.
NextMind’s developer kit is just that — a product aimed at developers that’s meant to give them everything they need to get building software that works with NextMind’s hardware and APIs. It includes the NextMind sensor, which works with a range of headgear, including simple straps, Oculus VR headsets and even baseball hats, along with the software and SDK required to make it work on your PC.
Image Credits: NextMind
The package that NextMind provided me included the sensor, a fabric headband, a Surface PC with the engine pre-installed and a USB gamepad for use with one of the company’s pre-built software demos.
The sensor itself is lightweight, and can operate for up to eight hours continuously on a single charge. It can charge via USB-C, and its software is compatible with both Mac and PC, along with Oculus, HTC Vive and also Microsoft’s HoloLens.
The NextMind sensor itself is surprisingly small and light — it fits in the palm of your hand, with two arms that extend slightly beyond that. It features an integrated clip mount that can be used to attach it to just about anything to secure it to your head. In terms of fit, you just need to ensure that the nine sets of two-pronged electrode sensors make contact with your skin, which NextMind provides instructions on doing by essentially making sure it straps snugly to your head, and then “combing” the device slightly (moving it up and down to get your hair out of the way).
It wears comfortably, though you will notice the electrodes pressing into your skin, especially over longer use periods. The ability to use a standard baseball cap with the clip makes it super convenient to install and wear, and it worked with the Oculus Rift and Oculus Quest headstraps easily and instantly, too.
Image Credits: NextMind
Setup was a breeze. I was guided by NextMind’s co-creators, but the app provides clear instructions as well. There’s a calibration process during which you look at an animation being displayed on the host PC, which helps the sensor identify the specific signals your occipital lobe is emitting when performing the target behaviour that you’ll later use to actually interact with NextMind-optimized software.
Here’s where it’s worth pausing to explain how NextMind is actually “reading your thoughts”: The sensor basically learns what it looks like when your brain is engaged in what the company calls “active, visual focus.” It does this using a common signal that it overlays on controllable elements of a software’s graphical user interface. That way, when you focus on a specific item, it can translate that into a “press” action, or a “hold and move,” or any other number of potential output results.
NextMind’s system is elegantly simple in conception, which is probably why it feels so powerful and rich in use. After the calibration process, I immediately jumped into the demos and was performing a range of actions effectively with my brain. First was media playback and window management on a desktop, and from there I moved on to composing music, entering a pin on a number pad and playing multiple games, including a platform where my mind control was supplementing my physical input on a USB gamepad to create a whole new level of fun and complex gameplay that wouldn’t be possible otherwise.
This is a Dev Kit, so the included software is just a small sampling of what could be possible with NextMind eventually, now that developers are able to build their own. What’s amazing is that the included samples are breathtaking on their own, providing an overall experience that is mind-bending in all the best possible ways. Imagining a future where NextMind hardware is even smaller and a seamless part of an overall computing experience that also includes traditional input is tantalizing, indeed.
NextMind’s Dev Kit is definitely just that — a Dev Kit. It’s intended for developers who are going to use it to write their own software that will take advantage of this unique, safe and convenient form of brain-computer interface (BCI). The kit retails for $399, and is now shipping. NextMind has plans to eventually consumerise the product, and to work with other OEMs as well on implementations, but for now, even in this state, it’s an awe-inspiring glimpse into what could well be the next major shift in our daily computing paradigm.
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