AS and A Level Biology 2 Views 1 Answers
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SouravNovember 1, 2024

Explain the advantages of using recombinant human proteins to treat disease, using the examples insulin, factor VIII and adenosine deaminase

Explain the advantages of using recombinant human proteins to treat disease, using the examples insulin, factor VIII and adenosine deaminase

Sourav
SouravNovember 1, 2024

Answer

Using recombinant human proteins to treat diseases offers several significant advantages, particularly in the context of specific examples such as insulin, factor VIII, and adenosine deaminase. Here’s an outline of these benefits:

1. Targeted Therapy

  • Specificity: Recombinant human proteins are designed to replicate the natural proteins produced by the human body, allowing for targeted treatment of specific diseases. For instance, recombinant insulin is identical to human insulin and effectively regulates blood glucose levels in diabetic patients without the risk of immune reactions associated with animal-derived insulin.

2. Improved Safety and Efficacy

  • Reduced Risk of Contamination: Recombinant proteins are produced in controlled environments, minimizing the risk of contamination with pathogens that can occur with proteins extracted from animal sources. This is particularly important in clotting factors like recombinant factor VIII, which is used to treat hemophilia A. The use of recombinant factor VIII significantly reduces the risk of transmitting blood-borne viruses compared to plasma-derived products.

3. Consistent Quality and Supply

  • Standardization: Recombinant production allows for consistent quality and concentration of therapeutic proteins. This standardization is crucial for treatments that require precise dosing, such as adenosine deaminase for treating severe combined immunodeficiency (SCID). Patients receive a reliable product that ensures effective treatment outcomes.

4. Scalability and Cost-Effectiveness

  • Large-Scale Production: Advances in biotechnology enable the large-scale production of recombinant proteins using microbial or mammalian cell systems. This scalability helps meet the increasing demand for therapies like insulin, which is essential for millions of diabetics worldwide.
  • Cost Reduction: While initial development costs may be high, recombinant proteins can ultimately reduce healthcare costs by providing effective treatments that prevent complications associated with untreated diseases.

5. Enhanced Therapeutic Options

  • Enzyme Replacement Therapy: For conditions caused by enzyme deficiencies, such as adenosine deaminase deficiency leading to SCID, recombinant proteins provide an effective enzyme replacement therapy option. This approach restores normal metabolic function and improves patient outcomes.
  • Gene Therapy Foundations: The successful use of recombinant proteins serves as a proof-of-concept for developing gene therapies. For example, the clinical success of recombinant factor VIII has paved the way for research into gene therapy approaches for hemophilia.

6. Potential for Modification and Innovation

  • Protein Engineering: Recombinant technology allows for modifications that can enhance protein stability, activity, or delivery mechanisms. For example, pegylated forms of factor VIII have been developed to prolong its half-life in circulation, reducing the frequency of injections needed for hemophilia patients.

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