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Showing posts with label Pharma. Show all posts
Showing posts with label Pharma. Show all posts

Monday, May 22, 2023

AI Drug Discovery Is $50-Billion Opportunity for Big Pharma

AI Drug Discovery Is $50-Billion Opportunity for Big Pharma

By Bloomberg, May 18, 2023

Research firm Deep Pharma Intelligence estimates that investments in AI-driven drug discovery companies have tripled over the past four years, reaching $24.6 billion in 2022.

Credit: Michele Marconi

Drugmakers worldwide are adopting artificial intelligence (AI) in the hope of accelerating drug discovery and time to market while cutting costs.

Japan's Takeda Pharmaceutical utilizes AI and machine learning to identify the best molecules for targeting proteins and to comprehend disease characteristics and their variance among different patient populations.

Takeda bought a psoriasis drug that startup Nimbus Therapeutics' algorithm selected in just six months; Nimbus' Jeb Keiper said conventional discovery of the candidate molecule would take two years.

Takeda's Anne Heatherington said, "Any technology that unlocks cutting-edge skills for our employees, reduces manual work, takes the friction out of the system, and frees up time for greater scientific insight and discovery is vital."

Investment company Morgan Stanley estimates using AI in early-stage drug development could yield an additional 50 novel medications generating more than $50 billion in sales over the net decade.

From Bloomberg

View Full Article - 

Wednesday, April 19, 2023

How Artificial Intelligence is Matching Drugs to Patients

Considerable direction, following.  

How artificial intelligence is matching drugs to patients  in the BBC

Published,2 days ago, By Natalie Lisbona, Business reporter, Tel Aviv

Dr Talia Cohen Solal sits down at a microscope to look closely at human brain cells grown in a petri dish.   "The brain is very subtle, complex and beautiful," she says.

A neuroscientist, Dr Cohen Solal is the co-founder and chief executive of Israeli health-tech firm Genetika+.  Established in 2018, the company says its technology can best match antidepressants to patients, to avoid unwanted side effects, and make sure that the prescribed drug works as well as possible.

"We can characterise the right medication for each patient the first time," adds Dr Cohen Solal.

Genetika+ does this by combining the latest in stem cell technology - the growing of specific human cells - with artificial intelligence (AI) software.  From a patient's blood sample its technicians can generate brain cells. These are then exposed to several antidepressants, and recorded for cellular changes called "biomarkers".

This information, taken with a patient's medical history and genetic data, is then processed by an AI system to determine the best drug for a doctor to prescribe and the dosage.

Although the technology is currently still in the development stage, Tel Aviv-based Genetika+ intends to launch commercially next year.  .... '


Friday, March 10, 2023

How Generative AI Could Lower Healthcare Costs, Speed Up Drug Development

 Interesting App in this space, makes much sense. Looking forward to prices going down.

How Generative AI Could Lower Healthcare Costs, Speed Up Drug Development

By ZDNet, March 3, 2023

Absci executives are confident generative AI programs will lead to antibodies with high efficacy in binding to disease targets.

When OpenAI's GPT-3 natural language processing software burst on the scene in 2020, one of the most remarkable things about it was its ability to carry out a variety of tasks in a "zero-shot" fashion. Zero-shot fashion means without having been given any explicit examples of the task, such as printing the French word "rate" when a person types the phrase "translate the word spleen into French," despite never being trained explicitly to translate.

In the near future, AI programs may be able to develop new cancer drugs in a zero-shot fashion, inventing combinations of amino acids that bind to cancer cells and neutralize them with no prior example of an effective protein.

From ZDNet

Friday, January 27, 2023

Computer Models Determine Drug Candidate's Ability to Bind to Proteins

Pharma applications? 

 Computer Models Determine Drug Candidate's Ability to Bind to Proteins   By University of Arkansas, January 17, 2023

The research focuses on computational simulations of diseases, including coronavirus.

University of Arkansas (U of A) researchers have developed computer models for calculating a drug candidate's protein-binding affinity.

Said U of A's Mahmoud Moradi, the method "assigns an effective energy to the ligand at every grid point in a coordinate system, which has its origin at the most likely location of the ligand when it is in its bound state."

The researchers produced a computationally efficient binding estimator using biased simulations and non-parametric re-weighting techniques, then applied orientation quaternion formalism to further define the ligand's conformational shifts while binding to targeted proteins.

They used the method to estimate binding affinity between human fibroblast growth factor 1 and heparin hexasaccharide 5 medication.

From University of Arkansas   

Saturday, January 07, 2023

Catheter-shaped Steerable Robot robotic devices

 Catheter-shaped robotic devices could be guided remotely within the body, or exercise semi-autonomous control. Steerable Soft Robots Could Enhance Medical Applications

EPFL (Switzerland), November 28, 2022

Scientists at the Swiss Federal Institute of Technology, Lausanne (EPFL) and the U.K.'s Imperial College London have produced catheter-shaped soft robots with sophisticated motion control. When used as catheters, the fiber-based robots could be guided remotely or semi-autonomously to a specific destination within a patient's body. The researchers used thermal drawing to generate fibers from thermoplastic elastomers, with multiple micrometer-scale channels grooved along their length to accommodate mechanisms like tendons. "In addition to the tendons, the fibers can integrate optical guides, electrodes, and microchannels that enable drug delivery, imaging, electrical recording and stimulation, and other tools commonly used in robotics and medical applications," explained EPFL's Andreas Leber. ... ' 


Wednesday, November 02, 2022

Walgreens Turns to Prescription-Filling Robots to Free Up Pharmacists

 Have seen this in operation locally.  Error rate?

Walgreens Turns to Prescription-Filling Robots to Free Up Pharmacists

By The Wall Street Journal, October 5, 2022

U.S. pharmacy chain Walgreens is deploying robots to fill prescriptions for drugstores amid a nationwide shortage of pharmacists and pharmacist technicians.

Robotic arms operating on assembly lines at automated drug-filling centers sort and bottle pills, and place them on conveyor belts. The goal is to free up pharmacists to provide medical services like vaccinations, which are a new and expanding revenue channel. Pharmacy automation software and technology supplier iA provides the robots.

Walgreens says the technology slashes pharmacist workloads by at least 25%, and will save the company over $1 billion annually. More drugstores are looking to automate and centralize drug fulfillment, says iA's chief automation officer Alecia Lashier.

From The Wall Street Journal

View Full Article – May Require Paid Subscription   

Friday, September 23, 2022

Thursday, July 28, 2022

Most Proteins Mapped with Deepmind

 New Digital Biology Advances with Deepmind

DeepMind found the structure of nearly every protein known to science

They’ll all be freely available

By Nicole Wetsman  Jul 28, 2022,

DeepMind is releasing a free expanded database with its predictions of the structure of nearly every protein known to science, the company, a subsidiary of Google parent Alphabet, announced today.

DeepMind transformed science in 2020 with its AlphaFold AI software, which produces highly accurate predictions of the structures of proteins — information that can help scientists understand how they work, which can help treat diseases and develop medications. It first started publicly releasing AlphaFold’s predictions last summer through a database built in collaboration with the European Molecular Biology Laboratory (EMBL). That initial set included 98 percent of all human proteins.

Now, the database is expanding to over 200 million structures, “covering almost every organism on Earth that has had its genome sequenced,” DeepMind said in a statement.

“You can think of it as covering the entire protein universe,” Demis Hassabis, CEO of DeepMind, said during a press briefing. “We’re at the beginning of a new era now in digital biology.”  ... '

Thursday, July 14, 2022

On Synthetic Biology

 A space we examined for Pharma applications..

ACM TECHNEWS

A 'Wise Counsel' for Synthetic Biology

By Max Planck Gesellschaft (Germany)  July 13, 2022

Researchers at Germany's Max Planck Institute for Terrestrial Microbiology (MPI) and France's INRAe Institute have developed a modular software application for optimizing biological systems, which they said does not require computational skills to use.

The researchers applied the Machine learning guided Experimental Trials for Improvement of Systems (METIS) software to various applications, including optimization of protein production, genetic constructs, combinatorial engineering of enzyme activity, and a carbon dioxide (CO2) fixation metabolic cycle called CETCH.

MPI's Christoph Diehl said METIS can democratize and promote current bio¬technology, synthetic biology, genetic circuit design, and metabolic engineering research, and also "can be a very helpful system for prototyping new-to-nature systems."

From Max Planck Gesellschaft (Germany)

View Full Article  

Friday, July 01, 2022

First CRISPR Gene Editing Drug

Pharma advances  

The first CRISPR gene-editing drug, designed to treat blood disorders, could be on the market by 2023. Here’s what it means for the future of drug development.

By Sy MUKHERJEE 

Until recently, CRISPR—the gene-editing technology that won scientists Jennifer Doudna and Emmanuelle Charpentier the 2020 Nobel Prize in chemistry—sounded more like science fiction than medicine; lab-created molecular scissors are used to snip out problematic DNA sections in a patient’s cells to cure them of disease. But soon we could see regulators approve the very first treatment using this gene-editing technology in an effort to combat rare inherited blood disorders that affect millions across the globe.

In a $900 million collaboration, rare disease specialist Vertex and CRISPR Therapeutics developed the therapy, dubbed exa-cel (short for exagamglogene autotemcel). It has already amassed promising evidence that it can help patients with beta thalassemia and sickle cell disease (SCD), both of which are genetic blood diseases that are relatively rare in the U.S. but somewhat more common inherited conditions globally.  ... ' 

Monday, May 23, 2022

Potentially Deadly AI?

Don't know how much of a real issue this is, but it is being reported by the Swiss Spiez lab, about their own drug discovery platform.  I would like to see a deeper follow up.  Please pass along and I will post. 

Widely Available AI Could Have Deadly Consequences   By Wired, May 18, 2022

In September 2021, scientists Sean Ekins and Fabio Urbina were working on an experiment they had named the "Dr. Evil project." The Swiss government's Spiez laboratory had asked them to find out what would happen if their AI drug discovery platform, MegaSyn, fell into the wrong hands.

In much the way undergraduate chemistry students play with ball-and-stick model sets to learn how different chemical elements interact to form molecular compounds, Ekins and his team at Collaborations Pharmaceuticals used publicly available databases containing the molecular structures and bioactivity data of millions of molecules to teach MegaSyn how to generate new compounds with pharmaceutical potential. The plan was to use it to accelerate the drug discovery process for rare and neglected diseases. The best drugs are ones with high specificity—acting only on desired or targeted cells or neuroreceptors, for instance—and low toxicity to reduce ill effects.

Normally, MegaSyn would be programmed to generate the most specific and least toxic molecules. Instead, Ekins and Urbina programmed it to generate VX, an odorless and tasteless nerve agent and one of the most toxic and fast-acting human-made chemical warfare agents known today.... 

The researchers warned that while AI is becoming more powerful and increasingly accessible to anyone, there is nearly no regulation or oversight for this technology and only limited awareness among researchers of its potential malicious uses.  .... 

From Wired   View Full Article   

Thursday, March 31, 2022

3D Printed Drugs for Personalized Pharma

If done well and efficiently raises a number of interesting applications. 

3D-Printed Tablets Offer Taste of Personalized Medicine  By New Atlas, March 30, 2022

Researchers at the U.K.'s University College London (UCL) have demonstrated that three-dimensional (3D) printing could be used to produce personalized medicines, with dosages and drug combinations customized for a patient's needs.

Building on the 3D-printing technique of vat photopolymerization, the new method, known as volumetric 3D printing, uses light during printing to form a resin containing dissolved drugs and a photoreactive chemical into a tablet.

By curing the entire resin structure at the same time rather than extruding the resin layer by layer, the researchers shortened printing time to as little as seven seconds (it took 17 seconds to produce 3D-printed tablets containing paracetamol).

UCL's Alvaro Goyanes said, "This technology could be a game changer for the pharmaceutical industry."

From New Atlas

View Full Article    

Tuesday, February 01, 2022

Tuberculosis Vaccine

 An example of pharma design

Computational Models Move Researchers Closer to Tuberculosis Vaccine

UC San Diego News Center,  Kimberly Mann Bruch, January 13, 2022

The University of Michigan's Denise Kirschner and colleagues are using supercomputers at the San Diego Supercomputer Center at the University of California, San Diego (UCSD) to investigate tuberculosis (TB), as a means of informing vaccine design. Kirschner said the work has shed light on the role of neutrophil cells in the immune response to TB infection. Predictive models using UCSD's Expanse supercomputer enabled the researchers to use images of neutrophils within TB granuloma to produce high-resolution models showing cells reacting to the disease. Said Kirschner, "Our computational approach and results from our recent study have helped narrow this concerning 'vaccine design space'—getting us closer to a globally effective vaccine."

Sunday, December 19, 2021

Discovering effective Drug Therapy

 Chemical compound discovery and application for drug therapy. 

Scientists Can Efficiently Screen Billions of Chemical Compounds to Find Effective Drug Therapies

USC Dornsife College of Letters, Arts, and Sciences

Darrin S. Joy, December 15, 2021

An international team of researchers led by the University of Southern California Dornsife College of Letters, Arts, and Sciences has devised a method of identifying effective drugs among billions of chemical compounds, more quickly and cost-efficiently than current methods. The V-SYNTHES (Virtual Synthon Hierarchical Enumeration Screening) method works directly with synthons, the virtual chemical building blocks of the REAL (readily available for synthesis) Space library, to identify the best molecules to match up with specific protein targets. V-SYNTHES was able to mine synthon libraries to identify drug-like molecules that could selectively target cannabinoid receptors more than 5,000 times faster than standard algorithms. ... ' 

 

Monday, November 29, 2021

3-D Printed Living Ink can Release Drugs

 New possibilities for more directly efficient delivery methods.  Continue to be impressed by the new capabilities introduced by 3D printing. 

3D-Printed 'Living Ink' Full of Microbes Can Release Drugs

New Scientist, Carissa Wong, November 23, 2021

A “living ink” made entirely from bacterial cells can be used in a three-dimensional (3D) printer to create structures that discharge drugs or absorb toxins. Researchers at the Massachusetts Institute of Technology genetically engineered the printable gel from proteins known as curli nanofibers, which are generated by E.coli cells; the nanofibers possess one of two oppositely charged modules attached to them, which crosslink. Filtering the bacteria through a nylon membrane concentrates the crosslinked fibers, making the gel printable. "The beauty of the work lies in the ability to genetically program the functional response of the printed living material," says André Studart at the Swiss Federal Institute of Technology in Zürich (ETH Zürich).

Friday, November 19, 2021

Novartis and Pharma AI

 Fairly broad look at how drugs can use AI:

Novartis empowers scientists with AI to speed the discovery and development of breakthrough medicines

By Bill Briggs

Here’s a cooking story unlike any you’ve heard before. That’s because the chefs are chemists, the ingredients are molecules, and the main course is a new medication designed to defeat illness.

At least, that’s Luca Finelli’s snackable description to explain in simple terms how scientists at Novartis are searching for breakthrough medicines powered by artificial intelligence (AI), part of a collaboration with Microsoft to get medicines to patients faster.

But that recipe hinges on the scientists’ ability to predict which blend of molecules can be transformed into medicines – a tedious process that traditionally takes decades and can cost billions.

“Creating the formulation to a drug is a bit like cooking,” says Finelli, vice president and head of insights, strategy and design at Novartis, a multinational pharmaceutical company headquartered in Basel, Switzerland.

“Typically, the formulation scientist needs to decide, ‘I will take this amount of this ingredient A and some amount of this ingredient B.’ They then try different combinations,” Finelli adds.

Each molecular combo must next be tested to gauge efficacy, stability, safety and more. Conducting those experiments can span years. And most promising drug candidates fail somewhere during that long journey.

But by leveraging the power of AI in collaboration with Microsoft, Novartis researchers may be able to shorten that process to weeks or even days.

How? Tools that use AI can sift quickly through stores of data and results from decades of laboratory experiments and suggest molecules with the desired characteristics that are optimized for the medicinal task at hand. Those drug leads might then be fast-tracked for additional testing and, if proven safe and effective, potentially be developed and manufactured as a remedy for illness. This AI-bolstered process could cut out years of trial-and-error experimenting with molecules that are less than ideal.

In fact, that functionality already has been “integrated into the decision-support system in front of our medicinal chemists,” says Shahram Ebadollahi, chief data and AI officer at Novartis.

The potential human impacts are vast, Ebadollahi says.

“If you look at every aspect of the pipeline – from early drug discovery and drug development to clinical trials and then on to manufacturing the drug at large scale – in 2020 alone, our medicines reached almost 800 million patients worldwide,” Ebadollahi says.

To accomplish this feat, Novartis scientists create molecules that never have been made, and these molecules will help develop new medicines to combat diseases for which there are no treatments, says Karin Briner, head of global discovery chemistry at Novartis Institutes of BioMedical Research.

The foundation for this work is the 2019 strategic partnership between Novartis and Microsoft to “reimagine medicine” by founding the Novartis AI Innovation Lab. The goal of that alliance is to help accelerate drug discovery for patients worldwide by augmenting scientists with cutting-edge technology platforms.

“Microsoft brings two things,” says Chris Bishop, lab director for Microsoft Research Europe.

“We bring our expertise in machine learning and our large-scale compute. Those don’t exist in the pharma world. And Microsoft can’t take this on (independently). We’re not a pharma company. So the partnership is absolutely crucial,” Bishop says. “That’s how the disruption will unfold. That collaboration is at the heart of this.”

Machine learning is a key part of AI, enabling computers to use algorithms to find patterns and trends within huge sets of data.

At Novartis, researchers can apply AI to comb through a trove of lab data from thousands of past drug-development experiments – findings buried in PDFs, Excel tables and written descriptions of the chemical properties of previously explored molecules.  .... " 

Friday, September 10, 2021

Immersive Drug Design with VR

In the much earlier days of VR we did something similar.  Key is what insight you get from the VR and how do you put it to real value in a design effort?   What is the value of the immersion?   Like what I see, but not very much detail. 

VR Puts Drug Researchers Inside Molecules

The Wall Street Journal, Sara Castellanos, September 7, 2021

Drug-discovery researchers are using virtual reality (VR) to examine the structures of molecules in order to determine how fluctuations in the distance, configuration, and chemical properties of such structures could clarify a drug's functions. Scientists can probe virtual environments filled with color-coded drug molecules and proteins, manipulating them with hand controllers to more easily identify promising molecules faster. Startup Nanome, which developed three-dimensional modeling software for this purpose, also is developing an artificial intelligence assistant that can guide users through the VR experience.

Thursday, June 24, 2021

Pharma and Quantum Computing

 McKinsey writes: 

Pharma’s digital Rx: Quantum computing in drug research and development

Quantum computing could be game-changing for drug development in the pharmaceutical industry. Businesses should start preparing now. ... " 

Thursday, June 03, 2021

Will Amazon sell Marijuana?

Is this imminent?  Certainly there will be negative publicity,  regardless if it is fully legalized by congress.  More generally cannabis?     Is Amazon the likely the supplier that would be most likely retailer to take on such negative wind?  Today they are already selling most anything that is legal.  They are already taking on selling strongly regulated goods like pharma.  Is this different?   Implications and possible boycotts?  More retailer expert comment below. 

Will Amazon become the Amazon of weed if Congress legalizes it?,   Jun 03, 2021,   by George Anderson in Retailwire

Amazon.com stated earlier this week that it supports the Marijuana Opportunity Reinvestment and Expungement Act (MORE Act), proposed legislation that would make the sale and consumption of cannabis products legal across the country. The House of Representatives passed the MORE Act last year but it went nowhere in the Senate where it did not have the requisite 60 votes to pass.

Amazon’s statement included a change in personnel policy that would end the pre-employment testing for the drug for certain positions. The company has decided that it will treat cannabis in the same manner it does alcohol when it comes to its testing procedures.

While the news is significant based on the retailing and technology giant’s economic clout and its role as an employer, it may be causing ripples within the cannabis industry for other reasons.  ... "