Our Blueprint

Learn more in-depth about the concepts of our idea and a thorough overview of our product

High-level explanation

How really does it work?, well here it is:
That's broad! Let's now break down each step.

Delivery System

"How do we deliver the CRISPR activator", you may ask? The short answer: MOF-16

MOF-16 is a metal-organic framework (MOF) with a high porosity and surface area. These properties make it an ideal nanocarrier for drug delivery. The CRISPR activator is a protein that can be used to edit genes. By attaching the CRISPR activator to MOF-16, we can deliver it directly to the adipose tissue, where it can be used to treat obesity and other diseases.



















The biodegradable chip is programmed with nano-code that helps the MOF-16 navigate to the adipose tissue. The chip is made of a material that will dissolve once it reaches the adipose tissue, releasing the MOF-16 and the CRISPR activator. The MOF-16 will then bind to the ligands on the adipose tissue, delivering the CRISPR activator directly to the cells.

This approach has several advantages over traditional drug delivery methods. First, the MOF-16 can be targeted directly to the adipose tissue, increasing the efficiency of drug delivery. Second, the biodegradable chip ensures that the MOF-16 will not accumulate in the body, reducing the risk of side effects. Third, the CRISPR activator can be used to edit genes, which could potentially provide a more permanent solution to obesity and other diseases.


















This approach is still in the early stages of development, but it has the potential to revolutionize the treatment of obesity and other diseases. By using MOF-16 as a nanocarrier, we can deliver CRISPR activators directly to the cells that need them, providing a more efficient and effective way to treat these diseases.

Here are some additional details about MOF-16:


















MOF-16 is a promising new material for drug delivery. It has a number of advantages over traditional drug delivery methods, and it has the potential to revolutionize the way we treat diseases.

1) MOF-16 is a crystalline material with a high porosity and surface area. This means that it has a lot of empty space inside, which can be used to store drugs or other molecules.

2) MOF-16 is also very stable, which means that it can withstand harsh conditions inside the body. This makes it a good choice for drug delivery, where the drug needs to be protected from the environment.

3) MOF-16 is also biodegradable, which means that it will eventually break down in the body. This is important for drug delivery, because it means that the drug will not accumulate in the body and cause side effects.

CRISPR Activator

The SLC2A4 gene is responsible for the production of the GLUT 4 protein, which is a glucose transporter that is responsible for the uptake of glucose into cells. It has been proved to reverse insulin resistance in lab rats using CRISPR.
Insulin resistance is a condition in which cells do not respond to the hormone insulin, which is responsible for regulating blood sugar levels. This can lead to high blood sugar levels, which can damage cells and organs over time.
By upregulating the SLC2A4 gene, we can increase the production of the GLUT 4 protein, which can help to improve the uptake of glucose into cells and reduce blood sugar levels. This can help to reverse insulin resistance and prevent or delay the onset of diabetes.
The CRISPR/Cas9 system is a gene editing tool that can be used to target and modify specific genes in cells. In this case, we can use CRISPR/Cas9 to target the SLC2A4 gene promoter, which is the region of DNA that controls the production of the SLC2A4 gene. Once the CRISPR/Cas9 system has targeted the SLC2A4 gene promoter, it can be used to insert a DNA sequence that will increase the expression of the SLC2A4 gene. This will lead to an increase in the production of the GLUT 4 protein, which can help to improve the uptake of glucose into cells and reduce blood sugar levels.