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Combining two or more treatment methods increases the life span of cancer patients while reducing damage to vital organs or tissue from the overuse of a single treatment. Combination therapy also targets different cancer-inducing pathways, thus reducing the chances of developing resistance to treatment.
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The targeted cancer therapies, also known as “molecular targeted therapies,” take advantage of the molecular and genetic differences between the cancer cells and the normal cells. It needs a thorough understanding of the cancer cells to develop drugs that can target specific molecular aspects that drive the growth, progression, and spread of cancer cells without affecting the growth and survival of other normal cells in the body.
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Cancer is the second leading cause of death in the United States. A cancer cell is genetically unstable and hence can mutate faster. They can also modify their microenvironment and escape immune surveillance. The difficulties in treating cancer are further compounded by the emergence of rapid resistance to anticancer drugs. The most common ways to attain resistance in cancer cells include alteration in drug transport and metabolism, modification of drug target, elevated DNA damage response, or...
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Immunotherapy is a treatment that boosts or manipulates the immune system to fight diseases, including cancer. For instance, by stimulating an immune response through vaccinations against viruses that cause cancers, like hepatitis B virus and human papillomavirus, these diseases can be prevented. Nonetheless, some cancer cells can avoid the immune system due to their rapid mutation and division. The immune response to many cancers involves three phases: elimination, equilibrium, and escape.
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Cancer survival analysis focuses on quantifying and interpreting the time from a key starting point, such as diagnosis or the initiation of treatment, to a specific endpoint, such as remission or death. This analysis provides critical insights into treatment effectiveness and factors that influence patient outcomes, helping to shape clinical decisions and guide prognostic evaluations. A cornerstone of oncology research, survival analysis tackles the challenges of skewed, non-normally...
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Cancer therapies are various modes of treatment, such as surgery, radiation therapy, and chemotherapy that are administered to cancer patients.
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Updated: Sep 12, 2025

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Anticancer Monotherapy and Polytherapy Drug Response Prediction Using Deep Learning: Guidelines and Best Practices.

Amin Emad1,2,3, David Earl Hostallero4,5

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Summary
This summary is machine-generated.

This study discusses deep learning models for cancer precision medicine, focusing on predicting treatment response and identifying molecular markers. It provides best practices for developing and utilizing these computational tools to avoid common pitfalls.

Keywords:
Cancer precision medicineDeep learningDrug response predictionDrug synergy predictionMachine learningOmics

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Area of Science:

  • Computational biology
  • Genomics
  • Pharmacology

Background:

  • Cancer precision medicine seeks personalized treatments by predicting patient response.
  • Large datasets of clinical and molecular cancer data are crucial for developing predictive models.
  • Deep learning models show promise in predicting drug responses in cancer therapy.

Purpose of the Study:

  • To guide the selection, utilization, and development of deep learning models for cancer precision medicine.
  • To highlight best practices and potential pitfalls in applying computational models to predict treatment response.
  • To identify molecular markers that determine individual responses to cancer therapies.

Main Methods:

  • Review of existing deep learning models for predicting monotherapy and polytherapy response.
  • Discussion of considerations for choosing and developing computational models.
  • Analysis of publicly available clinical and molecular cancer datasets.

Main Results:

  • Deep learning models can predict individual responses to cancer treatments.
  • Identification of molecular markers is key to personalized therapy.
  • Careful model selection and development are essential for reliable predictions.

Conclusions:

  • Effective use of deep learning in cancer precision medicine requires adherence to best practices.
  • Computational models offer powerful tools for predicting treatment efficacy and guiding personalized oncology.
  • Further research is needed to refine deep learning applications in identifying predictive biomarkers.