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3.3. Materials and chemicals
Materials and chemicals are substances that have
physical and chemical properties that can be used for various purposes and are critical
components of any research paper or project. These elements determine the
accuracy, reliability, and reproducibility of research results.
Most researchers who are working in
the life sciences use materials and chemicals in their projects. Applications
of advanced AI models help students and researchers identify the most suitable
materials and techniques according to research questions and available data,
develop these components, and improve the research process. ChatGPT has emerged
as a promising tool for helping researchers to find the most appropriate
materials and chemicals. ChatGPT
can help researchers and engineers in several ways:
Figure 18: ChatGPT's applications in materials and chemicals
3.3.1 Database
of materials and chemicals
One of the most important fields in which ChatGPT can
be used in the chemical industry is acting as a database of materials and
chemicals. ChatGPT is an AI model trained on large amounts of data, including
chemical and physical data. Advanced AI models can provide information about
different materials and chemicals available, such as material or chemical
descriptions, properties, functions, applications, synthesis methods, safety
measures, etc. Researchers can use it to ask about chemical properties, reactions,
and structures, get answers to common questions, and clarify doubts about these
substances. ChatGPT and other AI models assist in searching for the needed
information and sources on the web about items such as chemicals, lab kits,
glassware, and software and providing a summary or description of resources
related to these tools. ChatGPT
can generate high-quality responses to user queries based on its understanding
of the context and the user's intent. Artificial intelligence models help
researchers, students, and academic staff to improve the efficiency of the material and chemical research and development process
and provide a better experience.
Figure 19. ChatGPT response to: What are the physical and
chemical properties of chitosan carboxylic acid?
3.3.2 Virtual
chemist assistant and advisor
Researchers can also ask ChatGPT to compare different
items and to determine the most suitable materials and chemicals for specific
applications. ChatGPT can
help researchers and academic staff find the best materials and chemicals for
their projects, suggest ways to improve their experiments and designs, and
prepare them for personalized feedback and evaluations (figure 20). Artificial
intelligence models can motivate and encourage researchers and engineers
throughout their journey by providing positive reinforcement, emotional
support, and inspiration to face challenges, difficulties, or errors along the
way.
Figure 20.
ChatGPT response to: Acts as a virtual chemist assistant. Which are the best
solvents for gold nanoparticles and why?
3.3.3 Development
of new materials
ChatGPT can be used to design and develop new
materials [28, 29] and chemicals by
specifying the desired features and functionality, combining existing materials and chemicals in new ways, and specifying
the desired properties of the material or chemical. For example, if a company is working in the energy sector, it can
generate new materials for solar cells by training ChatGPT on a large corpus of
data on solar cells (figure 21). ChatGPT has been able to generate new
materials that are more efficient than existing materials and has helped
companies to improve the efficiency of solar cells, increase competitive advantages,
and develop new solar cells that are more affordable and accessible.
Figure 21. ChatGPT response to: Suggest new nanomaterials to
improve solar cells composed of dye-sensitized mesoporous photoanode of Ti
doped zinc oxide (Ti-ZnO).
3.3.4 Chemical
data analysis and prediction
Another important application of ChatGPT in materials
and chemicals is data analysis and prediction. ChatGPT
can be used to analyze large amounts of materials and chemical data, such as
spectroscopy data and molecular structures, and generate insights and predictions
about materials' properties and chemical reactions. Researchers and engineers
can use ChatGPT to predict the properties of materials and chemicals, such as
their strength, density, and melting point. The NLP model's features can help
accelerate the pace of material and chemical research and development and
improve the accuracy of materials and chemical predictions.
3.3.5 Chemical modeling and simulation
ChatGPT can also be used in materials and chemical modeling and simulation tasks, such as
molecular dynamics simulations and quantum chemical calculations. ChatGPT can
be fine-tuned on specific materials and chemical modeling and simulation tasks
and generate high-quality outputs based on its understanding of the materials
and chemical science and context. Furthermore, applications of artificial
intelligence models help to improve the accuracy of materials and chemical
modeling and simulation tasks and reduce the workload of human researchers and
engineers.
3.3.6 Identifying
potential hazards
ChatGPT can be used to identify potential hazards
associated with materials and chemicals, such as their toxicity and
flammability (figure 22). Lab managers may apply
ChatGPT to identify potential hazards associated with new chemicals. Users can
train ChatGPT on a large corpus of chemical data, and they are now using it to
identify potential hazards associated with new chemicals. ChatGPT has been able
to identify potential hazards that would have been difficult to identify using
traditional methods. Therefore, the AI conversational models help lab workers
and researchers protect themselves from dangerous chemicals.
Figure 22. ChatGPT response to: What are hazards associated with
the use of sulfuric acid in the laboratory? How can I protect myself from these
hazards.
In conclusion, the use of ChatGPT in materials and chemicals has the potential to revolutionize the way researchers and engineers work with materials and chemicals. Applications of database of materials and chemicals, virtual chemist assistant and advisor, development of new materials, chemical data analysis and prediction, chemical modeling and simulation, and identification of potential hazards. By providing a powerful natural language interface for materials and chemical data and models, ChatGPT can help to improve the efficiency of the material and chemical research and development process, provide better experience for researchers and engineers, and ensure more accurate and reliable materials and chemical predictions. As the technology continues to develop, we can expect to see even more exciting applications of ChatGPT in materials and chemicals.