All About Gene Editing In Plants | Craig Mosman | Technology

Craig Mosman
3 min readApr 11, 2023

The genome editing process is a technology that can be used to prevent or cure human diseases. It can also be used in agriculture to help plants adapt to climate change and improve their quality of food supply. In agriculture, gene editing is carried out through a process similar to the traditional breeding method. Through this process, scientists can change plants’ DNA sequences.

The gene editing process allows scientists to identify the exact page of a book they want to change. Using gene editing tools, they can improve specific areas of a plant’s DNA used for selective breeding.

What is CRISPR?

The term gene editing refers to a collection of tools that are commonly used in the process. One of the most talked-about tools is CRISPR, a type of gene editing that can be performed by clustering short palindromic repeats.

Using gene editing tools, researchers can change the plant’s DNA to enhance or remove the desired trait. The process then repairs the cell’s genetic structure and produces the desired feature.

What is Gene Editing?

Although gene editing is commonly used in different sectors, such as energy, industrial materials, and healthcare, it has the potential to drive significant advancements in agriculture. Using gene editing tools, scientists can alter the DNA sequence of plants to enhance their beneficial traits or remove negative ones.

The process of plant breeding through gene editing is more efficient and precise than any other method currently used in the field. It allows scientists to create healthier and more vigorous plants that benefit consumers and the environment.

The Importance of Gene Editing

Plants face many challenges, including pests and diseases, drought, and floods. As a result, innovations in agriculture, such as gene editing, are expected to play a vital role in meeting the needs of consumers and making the food system more resilient. Some benefits of gene-editing plants include improving the environment, reducing greenhouse gas emissions, and improving food quality.

One of the most significant advantages of gene editing is its ability to increase crop yields by using less land. This process can also help decrease the environmental impact of the plants. In addition, plants that are more efficient use fewer resources and require fewer inputs.

Due to the effects of climate change, gene editing can also help farmers adapt to the changes that are happening in the world. This process can help them develop better varieties of plants that can withstand drought and flood.

Gene editing can also help improve food products’ nutrition by lowering trans fats and saturated fat. This process can also help them contain more essential nutrients, such as high-fiber wheat. Researchers are currently working on extending food’s shelf-life by gene editing. For instance, they are developing new types of mushrooms and potatoes that can stay fresh longer.

Researchers can also improve plants’ physical structure and disease resistance through gene editing. For instance, they have developed a tomato plant that can produce more tomatoes while reducing the amount of space needed in the growing chamber. The ability to improve plant resilience is one of the essential factors that researchers can consider when it comes to developing new food products. They can help plants resist diseases and other environmental conditions through gene editing.

One of the essential factors that researchers can consider when developing new food products is the ability to reduce allergens. For instance, editing the genes of low-gluten wheat could make it easier for people with food allergies to enjoy pasta and bread. The lower food costs can be attributed to plant biotechnology and pesticides. Through gene editing, agriculture can become even more efficient, increasing food affordability.

Originally published at on April 11, 2023.



Craig Mosman

Craig Mosman has studied global health and illnesses for the last 15 years. He has lectured and spoken at seminars worldwide. Learn more at