We’ve developed a versatile nanogrinding technology that operates at room temperature and can handle complex material mixtures, offering solutions for waste recycling and high-tech manufacturing. This breakthrough is reshaping industries like electronics and pharmaceuticals by providing scalable, energy-efficient material processing. Read our detailed article on Medium and join the conversation"

"Our team has developed a groundbreaking method for metal nanogrinding at room temperature using physical methods. This innovation, once thought impossible, significantly reduces production costs and energy consumption. It has far-reaching applications in industries like pharmaceuticals, electronics, and energy. We invite you to explore how this breakthrough can impact the future.
Read our detailed article on Medium and join the conversation"

Firstly, if sensors are tiny and advanced enough, a whole array of such chains can be used in surgery, especially cancer surgery. The array could connect to usb port so that it is controlled with a laptop semi-automatically. Energy and data flows along wires during the surgery.

Secondly, if there is also a way to transmit energy wirelessly or a way to extract / generate electric power from blood's chemical energy, every actuator chain could separate from the controller device after receiving it's configuration file in binary form and continue to inside body autonomously. After that, some directions and/or navigation signals can be transmitted with magnetic field pulses or ultrasound. The insertion may be done in local anesthetic or maybe the device(s) can be injected to a vein upstream from the tumor or from something else that needs treatment.

It would be a tiny device that has even tinier integrated circuit in it, or is itself a tiny integrated circuit that is something other than a chip ( when looking at the definition of IC very carefully ).

It might use a drilling mechanism similar to this to first gain access to the tumor and then shred it:

https://youtu.be/TDRxnEHq068?si=O2shiwHU5M2hkfZ9&t=28

(time code link)

It would probably be a MEMS device:

https://en.wikipedia.org/wiki/MEMS

Range of possible sizes and lengths is large. Many very different sizes for different uses.

I am making a CdS/CdTe heterojunction photovoltaic, so CdS first and then CdTe. Has it been done before? If yes, can I get some references?
I have only seen papers using it for deposition of TiO2 and we aren't doing that. All the papers just ised CBD and only before that spin coating for TiO2. Also what binders to be used for it? Is PVA recommendable for it?

I'm not talking about bio-ink, where the cells are already there. Nor am I talking about growing an organ, then putting into someone, but actually printing living cells, like what was done in the movie The Fifth Element, Where they printed the whole rest of a person from a bone and hand in gauntlet. There's no way those cells were grown, it happened way too fast

Printing cells someone problematic, it would be like printing a water balloon, with a lot of things in it, like genes, oraganelles, ribosomes/proteins/enzymes, is that even possible? And if so how would it be done?

Hi,

I work for a company that makes nano emulsion cannabinoids.

I am looking for people who are wanting to add nano emulsions to their products. Does anyone know people that are interested in doing so?

What is the latest research about nanomachines being used in the human brain?

Hello my name is Jason Hein recently I've had something strange happened to me that no one has been able to explain. As I did some of my own investigation into nanotechnology I realize that these things are real and they do exist I don't know if they're in every human in the world but I know that they're in me right now I'm trying to look for any whistleblowers or anyone that can help me get to the bottom of what I experienced. I have two witnesses that are willing to testify if need be, though at this point I'm not willing to risk their lives or their identity. I hope the right person can give me some Direction in this matter feel free to comment post reshare like whatever it takes to get my story out!

Are there any literature or literature review on the typical C/O ratio or the degree of oxidation of the graphene oxide produced experimentally? Thanks

Just wandering are they putting a lot of money into Nanotechnology?

So I need to come up with a topic to give a 12 minute presentation on for my materials science class. It can be anything about material science or nanotech and I want to do something super interesting, any ideas?

Hello 😊 ,
My name is Mahran Abid, a final year master’s student in the DEDI program at the Higher Institute of Computer Science and Multimedia in Sfax. As part of my final year project, I am developing a Virtual Reality (VR) training application specifically tailored for nanotechnology.
This application aims to provide an immersive, interactive, and multiplayer training experience in the field of nanotechnology. In order to make this application as beneficial and user-friendly as possible, we have designed a survey to gather your valuable insights.
📄 We are interested in understanding your prior experience with VR and nanotechnology, your expectations from a VR training application in nanotechnology, and the specific features you would find most beneficial.
Your feedback will play a crucial role in shaping the features and functionalities of this application. Please note that all responses are anonymous and will be used exclusively for the development and improvement of this VR nanotechnology training application.
We greatly appreciate your time and valuable input. Thank you for helping us create a better VR training experience in the field of nanotechnology!
Looking forward to your responses.

https://forms.gle/Qi9KfcNaSd9sBi4C7

I was wondering if there is/are any softwares that let us simulate tools like SEM, AFM etc. ?!

Hello, I am taking a nanotechnology course. As homework, I have to make a presentation on the subject of STM. Is there a model like the link below (AFM) that I can make for STM? Can you help me?

https://m.youtube.com/watch?v=l62_Ib-rjU0&t=163s&pp=ygUJQWZtIG1vZGVs

Hi all! I have a question related to nanotechnology, specifically carbon nanotubes (CNTs).

I've been reading some patents and papers concerning the design of lightweight instrumentation for quantifying concentration of biological molecules. I have often found that the authors will describe a sensor array made of functionalized carbon nanotubes, configured in a particular way, so as to target X molecule.

Now, some these papers can be dated from the early 2000s, and others from last year. I understand that CNTs aren't often used outside of research, but I also see they're widely available to buy in different forms (single, multiwalled). So to my questions, what is the state?

How do you go from "bottle of CNTs" to "sensor array with interface to more standardised electronics"? Can you buy "preconfigured CNT molecule sensors"?

Thanks!

I would like to enter a science competition and make a project based on biochemistry, mainly focusing on nanotechnology's effects in medicine and improving upon them. I have no idea on where to start, can someone help me?

Happy Holidays r/Nanotechnology

📷

The Goal: Innovation at the Intersection of Biology and Nanotechnology

The journey of CompoundX begins with an ambitious goal: to create a groundbreaking material by merging the remarkable properties of DNA and graphene. The vision is to structure this hybrid in a honeycomb pattern, capitalizing on the efficiency and strength of this natural design. The essence of CompoundX lies in its unique composition, blending the biocompatibility and informational richness of DNA with the unparalleled mechanical strength and electrical conductivity of graphene.

The Process: A Multistep Approach to Creation

1. Graphene Synthesis: The initial step involves synthesizing high-quality graphene sheets, employing techniques like Chemical Vapor Deposition (CVD) or mechanical exfoliation to ensure minimal defects.
2. DNA Preparation: The second step focuses on synthesizing or extracting DNA strands, preparing them for integration with graphene. This involves purifying and stabilizing the DNA to maintain its structural integrity.
3. Hybrid Material Formation: In this crucial phase, nitrogen-doped graphene and ferric oxide nanoparticles are dispersed in a solvent, with DNA strands added to the mix. The process is meticulously controlled to foster the formation of the DNA-graphene hybrid material.
4. 3D Honeycomb Structure Creation: Advanced nanofabrication techniques, such as electron beam lithography, are utilized to pattern the graphene into a honeycomb lattice. DNA's self-assembly properties guide this structuring, integrating the strands with graphene.
5. Material Stabilization: To ensure the hybrid material's durability and functionality, chemical or thermal treatments are applied, stabilizing the composite.
6. Characterization and Analysis: Utilizing advanced microscopy and spectroscopy, the material undergoes thorough analysis to understand its properties and behaviors.
7. Testing and Refinement: The material is tested for its mechanical, electrical, and thermal properties, with a particular focus on biocompatibility for medical applications. Findings from these tests inform further refinements in the synthesis process.
8. Scaling Up Production: The final step involves transitioning from laboratory synthesis to large-scale manufacturing, focusing on maintaining quality and cost-effectiveness.

The Applications: A Spectrum of Revolutionary Possibilities

CompoundX, with its hybrid structure and properties, opens the door to a myriad of applications across diverse fields:

• In biomedicine, it could revolutionize drug delivery systems and tissue engineering.
• Its electrical properties make it ideal for advanced electronics, including sensors and wearable technology.
• In energy storage, CompoundX could enhance batteries and solar cells.
• Its fine structure lends itself to environmental applications like filtration systems and pollutant detection.
• The DNA component offers possibilities in high-density data storage and advanced computing.
• The material's strength and lightness are perfect for aerospace engineering.

Conclusion: A Vision of Material Science’s Future

CompoundX represents a visionary step forward in material science, marrying the intricacies of biology with the advancements of nanotechnology. While currently theoretical, its potential applications suggest a transformative impact on technology and society. The concept of CompoundX stands as a testament to human ingenuity and the relentless pursuit of innovation at the frontiers of science.

PRODUCTION Renderings attached.

Step 1

The first step in producing a DNA-graphene hybrid material – Graphene Synthesis – has been created with clear and accurate instructions. It visually depicts the production of high-quality graphene sheets, using methods like Chemical Vapor Deposition (CVD) or mechanical exfoliation. The annotations include precise, correctly spelled, and scientifically accurate text and equations, focusing on the process of synthesizing graphene with minimal defects and ensuring high quality.

Step 2

The image for the second step in producing a DNA-graphene hybrid material – DNA Preparation – has been created. It illustrates the process of synthesizing or extracting DNA strands that are to be combined with graphene. The annotations provide clear and accurate instructions on purifying and preparing the DNA strands, ensuring they are stable and intact for integration with graphene.

Step 3

The third step in producing a DNA-graphene hybrid material – Hybrid Material Formation – has been created. It visually demonstrates the process of dispersing nitrogen-doped graphene and ferric oxide nanoparticles in a solvent, followed by the addition of DNA strands to this mixture. The annotations provide detailed instructions on how to control conditions such as temperature, pH, and concentration, essential for promoting the formation of the DNA-graphene hybrid material.

Step 4

The fourth step in producing a DNA-graphene hybrid material – 3D Honeycomb Structure Creation – has been created. It depicts the use of nanofabrication techniques, such as electron beam lithography, to pattern the graphene into a honeycomb lattice. Additionally, the image illustrates the role of DNA self-assembly in guiding the formation of this honeycomb structure and integrating DNA strands with the graphene.

Step 5

The fifth step in producing a DNA-graphene hybrid material – Material Stabilization – This step involves the application of chemical or thermal treatments to stabilize the hybrid material. The annotations in the image provide clear and accurate instructions on ensuring the DNA retains its structural integrity and the graphene imparts mechanical and thermal stability to the material.

Step 5

The sixth step in producing a DNA-graphene hybrid material – This step involves the use of advanced microscopy techniques, such as electron or atomic force microscopy, to analyze the structure of the material. The annotations provide guidance on conducting spectroscopy analysis to assess the material's chemical and physical properties.

Step 6

The seventh step in producing a DNA-graphene hybrid material – Testing and Refinement --This step involves the process of testing the material for its mechanical, electrical, and thermal properties. The annotations provide clear instructions on assessing biocompatibility, especially for biomedical applications, and refining the synthesis process based on test results and performance analysis.

Step 7 Fix Shit!

The Goal: Innovation at the Intersection of Biology and Nanotechnology

The journey of CompoundX begins with an ambitious goal: to create a groundbreaking material by merging the remarkable properties of DNA and graphene. The vision is to structure this hybrid in a honeycomb pattern, capitalizing on the efficiency and strength of this natural design. The essence of CompoundX lies in its unique composition, blending the biocompatibility and informational richness of DNA with the unparalleled mechanical strength and electrical conductivity of graphene.

The Process: A Multistep Approach to Creation

1. Graphene Synthesis: The initial step involves synthesizing high-quality graphene sheets, employing techniques like Chemical Vapor Deposition (CVD) or mechanical exfoliation to ensure minimal defects.
2. DNA Preparation: The second step focuses on synthesizing or extracting DNA strands, preparing them for integration with graphene. This involves purifying and stabilizing the DNA to maintain its structural integrity.
3. Hybrid Material Formation: In this crucial phase, nitrogen-doped graphene and ferric oxide nanoparticles are dispersed in a solvent, with DNA strands added to the mix. The process is meticulously controlled to foster the formation of the DNA-graphene hybrid material.
4. 3D Honeycomb Structure Creation: Advanced nanofabrication techniques, such as electron beam lithography, are utilized to pattern the graphene into a honeycomb lattice. DNA's self-assembly properties guide this structuring, integrating the strands with graphene.
5. Material Stabilization: To ensure the hybrid material's durability and functionality, chemical or thermal treatments are applied, stabilizing the composite.
6. Characterization and Analysis: Utilizing advanced microscopy and spectroscopy, the material undergoes thorough analysis to understand its properties and behaviors.
7. Testing and Refinement: The material is tested for its mechanical, electrical, and thermal properties, with a particular focus on biocompatibility for medical applications. Findings from these tests inform further refinements in the synthesis process.
8. Scaling Up Production: The final step involves transitioning from laboratory synthesis to large-scale manufacturing, focusing on maintaining quality and cost-effectiveness.

​

The Applications: A Spectrum of Revolutionary Possibilities

CompoundX, with its hybrid structure and properties, opens the door to a myriad of applications across diverse fields:

• In biomedicine, it could revolutionize drug delivery systems and tissue engineering.
• Its electrical properties make it ideal for advanced electronics, including sensors and wearable technology.
• In energy storage, CompoundX could enhance batteries and solar cells.
• Its fine structure lends itself to environmental applications like filtration systems and pollutant detection.
• The DNA component offers possibilities in high-density data storage and advanced computing.
• The material's strength and lightness are perfect for aerospace engineering.

​

Conclusion: A Vision of Material Science’s Future

CompoundX represents a visionary step forward in material science, marrying the intricacies of biology with the advancements of nanotechnology. While currently theoretical, its potential applications suggest a transformative impact on technology and society. The concept of CompoundX stands as a testament to human ingenuity and the relentless pursuit of innovation at the frontiers of science.

PRODUCTION Renderings attached.

Step 1

The first step in producing a DNA-graphene hybrid material – Graphene Synthesis – has been created with clear and accurate instructions. It visually depicts the production of high-quality graphene sheets, using methods like Chemical Vapor Deposition (CVD) or mechanical exfoliation. The annotations include precise, correctly spelled, and scientifically accurate text and equations, focusing on the process of synthesizing graphene with minimal defects and ensuring high quality.

Step 2

The image for the second step in producing a DNA-graphene hybrid material – DNA Preparation – has been created. It illustrates the process of synthesizing or extracting DNA strands that are to be combined with graphene. The annotations provide clear and accurate instructions on purifying and preparing the DNA strands, ensuring they are stable and intact for integration with graphene.

Step 3

The third step in producing a DNA-graphene hybrid material – Hybrid Material Formation – has been created. It visually demonstrates the process of dispersing nitrogen-doped graphene and ferric oxide nanoparticles in a solvent, followed by the addition of DNA strands to this mixture. The annotations provide detailed instructions on how to control conditions such as temperature, pH, and concentration, essential for promoting the formation of the DNA-graphene hybrid material.

Step 4

The fourth step in producing a DNA-graphene hybrid material – 3D Honeycomb Structure Creation – has been created. It depicts the use of nanofabrication techniques, such as electron beam lithography, to pattern the graphene into a honeycomb lattice. Additionally, the image illustrates the role of DNA self-assembly in guiding the formation of this honeycomb structure and integrating DNA strands with the graphene.

Step 5

The fifth step in producing a DNA-graphene hybrid material – Material Stabilization – This step involves the application of chemical or thermal treatments to stabilize the hybrid material. The annotations in the image provide clear and accurate instructions on ensuring the DNA retains its structural integrity and the graphene imparts mechanical and thermal stability to the material.

Step 5

The sixth step in producing a DNA-graphene hybrid material – This step involves the use of advanced microscopy techniques, such as electron or atomic force microscopy, to analyze the structure of the material. The annotations provide guidance on conducting spectroscopy analysis to assess the material's chemical and physical properties.

Step 6

The seventh step in producing a DNA-graphene hybrid material – Testing and Refinement --This step involves the process of testing the material for its mechanical, electrical, and thermal properties. The annotations provide clear instructions on assessing biocompatibility, especially for biomedical applications, and refining the synthesis process based on test results and performance analysis.

Step 7 Fix Shit!