vimarsana.com

Latest Breaking News On - Masonic cancer - Page 6 : vimarsana.com

New efforts to improve the efficacy of nucleotide-based drugs against prostate cancer, bone metastasis

New efforts to improve the efficacy of nucleotide-based drugs against prostate cancer, bone metastasis Published in the Advanced Functional Materials, University of Minnesota researcher Hongbo Pang led a cross-institutional study on improving the efficacy of nucleotide-based drugs against prostate cancer and bone metastasis. In this study, Pang and his research team looked at whether liposomes, when integrated with the iRGD peptide, will help concentrate antisense oligonucleotides (ASOs) into primary prostate tumors and its bone metastases. Liposomes are used as a drug carrier system, and ASOs are a type of nucleotide drug. More importantly, they investigated whether this system helps more drugs across the vessel wall and deeply into the tumor tissue. This is critical because, although nucleotide drugs offer unique advantages in treating tumors and other diseases, they often suffer from a poor efficiency of crossing the blood vessels and entering the tumor tissue, where their ta

Enhancing Effectiveness of drugs Against Prostate Cancer

Enhancing Effectiveness of drugs Against Prostate Cancer by Angela Mohan on  April 21, 2021 at 5:04 PM Advanced Functional Materials. Researchers also investigated whether this system helps more drugs across the vessel wall and deeply into the tumor tissue. Although nucleotide drugs offer advantages in treating tumors and other diseases, they often suffer from a poor efficiency of crossing the blood vessels and entering the tumor tissue, where their targets reside. This problem greatly limits their clinical applicability and efficacy. Our system demonstrates a good ability to deliver more ASOs into both primary tumor tissue and bone metastases which is the primary site for prostate cancer metastasis, said Pang, an assistant professor in the College of Pharmacy and a member of the Masonic Cancer Center.

Improving drug efficacy against prostate cancer and related bone growths

, University of Minnesota researcher Hongbo Pang led a cross-institutional study on improving the efficacy of nucleotide-based drugs against prostate cancer and bone metastasis. In this study, Pang and his research team looked at whether liposomes, when integrated with the iRGD peptide, will help concentrate antisense oligonucleotides (ASOs) into primary prostate tumors and its bone metastases. Liposomes are used as a drug carrier system, and ASOs are a type of nucleotide drug. More importantly, they investigated whether this system helps more drugs across the vessel wall and deeply into the tumor tissue. This is critical because, although nucleotide drugs offer unique advantages in treating tumors and other diseases, they often suffer from a poor efficiency of crossing the blood vessels and entering the tumor tissue, where their targets reside. This problem greatly limits their clinical applicability and efficacy.

Improving rug efficacy against prostate cancer and related bone growths

, University of Minnesota researcher Hongbo Pang led a cross-institutional study on improving the efficacy of nucleotide-based drugs against prostate cancer and bone metastasis. In this study, Pang and his research team looked at whether liposomes, when integrated with the iRGD peptide, will help concentrate antisense oligonucleotides (ASOs) into primary prostate tumors and its bone metastases. Liposomes are used as a drug carrier system, and ASOs are a type of nucleotide drug. More importantly, they investigated whether this system helps more drugs across the vessel wall and deeply into the tumor tissue. This is critical because, although nucleotide drugs offer unique advantages in treating tumors and other diseases, they often suffer from a poor efficiency of crossing the blood vessels and entering the tumor tissue, where their targets reside. This problem greatly limits their clinical applicability and efficacy.

© 2025 Vimarsana

vimarsana © 2020. All Rights Reserved.