Theranautilus raises $1.2 million to develop nanorobots for dental hypersensitivity
The Economic Times - 19-Nov-2024The funding enables industrial production, clinical trials, and patent filing
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The funding enables industrial production, clinical trials, and patent filing
A groundbreaking model helps tiny robots navigate bloodstreams, paving the way for clinical trials
Magnetic nanobots target brain aneurysms in rabbits, hinting at future human therapies
Magnetic nanorobots could revolutionize medicine with precise internal treatments
The system works by being activated in acidic tumour environments
This approach uses algae-powered robots to neutralise harmful proteins in the colon
Tiny robots made of DNA can now deliver your medicine straight to the cells
New, more efficient approach for personalized bladder cancer treatment
Opening doors for minimally invasive treatments of hard-to-reach blockages
Potential future of targeted drug delivery and advanced nanotechnology applications
Anthrobots bridge neuron gaps and fight disease, paving the way for regenerative medicine
Technology can communicate with and control nano-implants inside the body
Ingenious nanotechnology enabling non-invasive advancements for the future of medicine
Magnetically guided nanotubes effectively killed cancer cells in mice
Nanorobots make the process cost-efficient and fast, with same level of accuracy compared to tradition method
Electric- and magnetic-powered tiny robot able to identify, capture, and transport single cell autonomously
Many conditions could be improved by removing signalling that prevents cells operating at their best
Nanoparticles-modified microbots coated with neutrophil cell membranes-reduce inflammation in lungs
Sediment built-up in the shunts can be scraped out using microbot swarms
Embolization is a medical technique used to block blood vessels during treatment
Bacterial microrobots activate immune response and release drugs directly at desired tumor sites
Shapeshifting microbots to automate the removal of dental plaque and decay-causing bacteria
Latch recognises low pH environment around cancer cells for penetration
Nanobots looking safe to diagnose, treat and prevent diseases
in vitro studies shows prevention of failures due to bacterial infection
Ultra-low toxicity NaNots could have a wide variety of applications
A breakthrough approach for cell-based treatments and precision medicine
New tiny virus catcher acts as nanorobots to engulf viral particles
In future: no keys, no wallet, just an implant under the skin
Artificial version could help to propel tiny biomedical robots
Wireless chip measures body temperature in mice & has the potential to track other parameters in humans as well
These tiny yet complex devices hold a potential future in identifying & treating many diseases
Promising precision biomedicine in the near future with neutrophil-based drug carrier bots
Urease-fueled nanorobots with medical imaging tracker is a breakthrough in biomedical research
Real injectable robots delivering drugs exactly where they're needed - the future is here!
Customizable nanobots to the cancer type could silence the targeted cancer genes
3D print mini robot will help deliver drugs to specific parts in delicate surgeries
Scientists made mini robots that work under magnetic field to deliver pills
Unfolds inside the body to print cells and tissues - might help bio print organs soon
A magnetically controlled microrobot connects clusters of nerve cells
You could fit 50,000 of these in a drop of blood - nanomedicine is getting closer
This new tech can enable miniaturization and remote control in tight spaces
Able to regress tumor in mice within one to two days, and prevent regrowth
Forces of physics act in a programmed pattern to drive cellular behaviour
Can manipulate these nanobots inside the body using magnetic fields
Able to recover from induced surgical ischameia in hind legs of mice
One step nearer to thousands of nanobots monitoring us from the inside
Interesting method to make naturally useful RBCs smaller and more mobile
A success in petri dishes and animal models, eyed for potential in tumor drug delivery
Made of DNA fragments, nanorobots will be used to locate and destroy cancer cells
Discovery is a promising one, and in the future, expected to reduce the risk of heart attacks
"Living robots" are created from completely biological material
Acts more on cancer cells compared to normal cells and eliminates them
Once technology is proven it could be used to remove ageing factors in old blood
There's a chance for at least one of these novel approaches might work
New approach has been effective in preventing the development of melanoma, treating primary tumours
“Smart” cells behave like tiny autonomous robots, planned to detect damage and deliver help
Lowering the levels of HER2 slows cancer cell proliferation and triggers cell death
Prevents reestablishment of plaques, therefore more efficient than antibacterial agents
Used for research now, but technique could have clinical applications in future
Plan to incorporate controllers and sensors in future
nanoMIPs could improve the specificity of senolytics
Innovation is necessary to survive in the field of nanotechnology
A new flexible mini robot capable of carrying several times its own weight may be used for drug delivery in the future
Multi-legged millirobot has 40 times less friction than a limbless robot in wet, dry environments
3D-printed Nickle and Titanium microrobots delivered cancer cells into mice
The robot is capsule-shaped, hollow and has propellants that mimic bacterial movements
Corkscrew-shaped nanomotor uses small, rotating magnetic fields.
Nanobots made from origami-folded DNA sheets.
Millirobots responds to magnetic field generated by MRI scanners.
Robot exoskeleton can rapidly change shape upon sensing chemical or thermal changes.
Robots and DNA share the ability to be programmed to complete a specific function.
Biohybrids are biological cells with magnetic particles engineered on to guide them.
Senior inventor at IBM has predicted artificially intelligent nano-machines within the next 20 years.
Founded in 2014, France-based Eligo Bioscience has received $20m Series A funding.
Motor is a paddle-like chain of atoms that spins when activated by a light source.
Micromotors are autonomous vehicles the width of a human hair.
Franck Vernerey models his machines after maggots' squirming movement.
A fun 15 minutes which raises some interesting questions about the future capabilities of nanobots.
One problem with nanobots (aka capsule endoscopes) is tracking their location once ingested.
Radboud University researchers assembled a synthetic nanoscale vesicle - a kind of bladder that can be filled with liquids.
Could be used as artificial white blood cells defending your body from disease.
Gingko Bioworks manufactures tiny biological machines with biology
Same size as a blood cell potentially allowing them to be injected into a patient’s body.
Made from gold and nickel nanowire sections the devices flex like a fish when powered by a magnetic field.
National Technical University of Athens working to develop nanobots that could be injected into the brain and then crawl along neurons, pinching them to see if they are healthy or not.
Technology demonstration released a drug inside cockroaches in response to a person’s brain activity.
100 million flagellated bacteria propel drug laden nanobots through body fluids, helped by the use of magnetic fields.
Biocompatible material fits inside a capsule for swallowing.
Medical robotics at the cellular level.
Gold nanobot has 2 strands of DNA – one to identify a disease, the other to fluoresce.
Sperm that don’t swim well rank high among the main causes of infertility.
Tiny groups of magnetically charged particles band together to break up clogged arteries in 2 stage process:
Researchers at Vanderbilt University have built over 20 function-specific capsules.
Great video introduction to some of the advances in nanobots and how they may be used in your body such as delivering drugs.
Researchers from Aalto University compare biological DNA-nanomachine developments and their uses.
Corkscrew-shaped bacteria enables drilling motion
Fish shape nanobots manufactured using microscale continuous optical printing (µCOP) at much smaller resolution than traditional 3D printing. Devices created from three different types of functional nanoparticles allowing them to be customized to suit the
Magnetic robots manoeuvred in MRI machine to form Gauss gun. Big at the moment but technology only gets smaller so will eventually be bloodstream scale. Video.
Polypyrrole (Ppy) nanowire able to move through biological fluid environment. Includes video.
Researchers at Max Planck Institute for Intelligent Systems in Stuttgart, Germany, have developed two types of microswimmers:
Google X’s life sciences division has partnered with Entrega.
322 um long microbot that navigates using weak magnetic fields.
Bacteriobot uses genetically modified salmonella bacteria’s brain and flagella to target cancer tumours with microscopic capsules filled with drugs.