Abstract A010: A patient first approach using CRISPR-directed gene editing as an augmentative therapy for the treatment of pancreatic ductile adenocarcinoma

Abstract At the Gene Editing Institute, we are advancing a novel strategy for the treatment of pancreatic ductile adenocarcinoma by employing CRISPR-directed gene editing to disable the functions of key genes that block effective drug application including chemotherapy, radiation and immunotherapy. No matter how careful one is at designing a specific drug against a specific protein, ultimately, the tumor cell develops a workaround. A paradigm shift is required to truly overcome this formidable barrier. We’ve accomplished this by leveraging the effectiveness of standard care and augmenting it, thereby reducing patient suffering, increasing treatment tolerance and, most importantly, improving outcomes. With an enthusiastic response for this concept from the FDA- INTERFACT meeting, we have demonstrated that a carefully selected CRISPR/Cas complex disables the NRF2 gene in the tumor cell and significantly reduces the dose of chemotherapy required to halt pancreatic tumor cell growth, and consequently promoting cell death. The efficiency of gene editing approaches 70 % routinely, which destroys the function of NRF2 and enables additional killing of residual tumor cells by chemotherapeutic agents. As a consequence of CRISPR/Cas activity, we effectively reduce the amount of chemotherapy needed to kill tumor cells by over 20-fold. This level of reduction should enable patients to complete their treatment regimens more successfully, at lower dosages and with far fewer adverse side effects. In addition to reduced suffering, this will invariably prolong survival as we are augmenting already proven treatments. This approach is agnostic to the haplotype of the tumor cell and does not rely on specific biomarker composition; radically expanding the patient population that would be suitable for this type of treatment. We will discuss the impact of CRISPR/Cas-gene editing to disable specific genes, including NRF2 and mutant KRAS, to enable current therapies to work at greater efficacy and at lower dosages. Citation Format: London P McGill, Kelly H Banas, Gregory Tiesi, Eric B Kmiec. A patient first approach using CRISPR-directed gene editing as an augmentative therapy for the treatment of pancreatic ductile adenocarcinoma [abstract]. In: Proceedings of the AACR Special Conference in Cancer Research: Advances in Pancreatic Cancer Research; 2024 Sep 15-18; Boston, MA. Philadelphia (PA): AACR; Cancer Res 2024;84(17 Suppl_2):Abstract nr A010.

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Journal
Cancer Research
Published
2024-09-15
DOI
https://doi.org/10.1158/1538-7445.pancreatic24-a010
Primary Topic
CRISPR and Genetic Engineering
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article
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article

Abstract A010: A patient first approach using CRISPR-directed gene editing as an augmentative therapy for the treatment of pancreatic ductile adenocarcinoma

London Pamela McGill, Kelly Banas, Gregory Tiesi, Eric B. Kmiec
Cancer Research
CRISPR and Genetic Engineering
article

Abstract A010: A patient first approach using CRISPR-directed gene editing as an augmentative therapy for the treatment of pancreatic ductile adenocarcinoma

London Pamela McGill, Kelly Banas, Gregory Tiesi, Eric B. Kmiec
article en

Abstract

Abstract At the Gene Editing Institute, we are advancing a novel strategy for the treatment of pancreatic ductile adenocarcinoma by employing CRISPR-directed gene editing to disable the functions of key genes that block effective drug application including chemotherapy, radiation and immunotherapy. No matter how careful one is at designing a specific drug against a specific protein, ultimately, the tumor cell develops a workaround. A paradigm shift is required to truly overcome this formidable barrier. We’ve accomplished this by leveraging the effectiveness of standard care and augmenting it, thereby reducing patient suffering, increasing treatment tolerance and, most importantly, improving outcomes. With an enthusiastic response for this concept from the FDA- INTERFACT meeting, we have demonstrated that a carefully selected CRISPR/Cas complex disables the NRF2 gene in the tumor cell and significantly reduces the dose of chemotherapy required to halt pancreatic tumor cell growth, and consequently promoting cell death. The efficiency of gene editing approaches 70 % routinely, which destroys the function of NRF2 and enables additional killing of residual tumor cells by chemotherapeutic agents. As a consequence of CRISPR/Cas activity, we effectively reduce the amount of chemotherapy needed to kill tumor cells by over 20-fold. This level of reduction should enable patients to complete their treatment regimens more successfully, at lower dosages and with far fewer adverse side effects. In addition to reduced suffering, this will invariably prolong survival as we are augmenting already proven treatments. This approach is agnostic to the haplotype of the tumor cell and does not rely on specific biomarker composition; radically expanding the patient population that would be suitable for this type of treatment. We will discuss the impact of CRISPR/Cas-gene editing to disable specific genes, including NRF2 and mutant KRAS, to enable current therapies to work at greater efficacy and at lower dosages. Citation Format: London P McGill, Kelly H Banas, Gregory Tiesi, Eric B Kmiec. A patient first approach using CRISPR-directed gene editing as an augmentative therapy for the treatment of pancreatic ductile adenocarcinoma [abstract]. In: Proceedings of the AACR Special Conference in Cancer Research: Advances in Pancreatic Cancer Research; 2024 Sep 15-18; Boston, MA. Philadelphia (PA): AACR; Cancer Res 2024;84(17 Suppl_2):Abstract nr A010.

Cancer ResearchVol. 84(17_Supplement_2)
Jersey Shore University Medical Center (US)
Openalex Percentile: Top 86%
CRISPR and Genetic Engineering
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