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Synthetic Triplex Peptide Nucleic Acid-Based Inhibitors for Cancer Therapy

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Summary

The USPTO published patent application US20260092085A1 by inventors Bahal, Dhuri, and Slack disclosing novel peptide nucleic acid (PNA) oligomers designed to target microRNA-155 (miR-155) for cancer therapy. The application demonstrates in vivo efficacy in xenograft mouse models showing reduced tumor growth. The PNA oligomers form PNA/RNA/PNA triplex structures when binding target RNA sequences.

Published by USPTO on changeflow.com . Detected, standardized, and enriched by GovPing. Review our methodology and editorial standards .

What changed

The USPTO published patent application US20260092085A1 for synthetic peptide nucleic acid (PNA) oligomers capable of forming triplex structures with target RNA. The application (No. 18858646, filed April 20, 2023) covers PNA-based anti-microRNA compounds targeting miR-155, which showed significant tumor growth reduction in lymphoma cell lines and xenograft mouse models. The technology enables targeting of both coding and noncoding RNAs for cancer therapy applications.

Patent applications do not impose regulatory compliance obligations on third parties. Inventors and entities in the pharmaceutical/biotechnology sector should consult patent counsel regarding filing strategies, prosecution timelines, and international patent protection options if pursuing similar technologies. This publication has no compliance deadlines or penalties associated with it.

Archived snapshot

Apr 2, 2026

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← USPTO Patent Applications

SYNTHETIC TRIPLEX PEPTIDE NUCLEIC ACID-BASED INHIBITORS FOR CANCER THERAPY

Application US20260092085A1 Kind: A1 Apr 02, 2026

Inventors

Raman Bahal, Karishma Dhuri, Frank Slack

Abstract

A novel peptide nucleic acid (PNA) oligomer capable of forming a PNA/RNA/PNA triplex when binding to its target RNA is described. An anti-micro RNA (miRNA) capable of binding miR-155 was designed based on the novel PNA oligomer and was shown to significantly decrease miR-155 expression in vitro in lymphoma cell lines. In vivo testing in xenograft mouse models resulted in reduced miR-155 expression followed by reduced tumor growth. Methods of making and using the novel PNA oligomer for targeting other coding and noncoding RNAs are described.

CPC Classifications

C07K 14/003 A61P 35/00 A61K 38/00

Filing Date

2023-04-20

Application No.

18858646

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Last updated

Classification

Agency
USPTO
Published
April 2nd, 2026
Instrument
Notice
Legal weight
Non-binding
Stage
Final
Change scope
Minor
Document ID
US20260092085A1

Who this affects

Applies to
Pharmaceutical companies Drug manufacturers Healthcare providers
Industry sector
3254 Pharmaceutical Manufacturing 3254.1 Biotechnology
Activity scope
Patent Filing Biotechnology Research
Geographic scope
United States US

Taxonomy

Primary area
Intellectual Property
Operational domain
Legal
Topics
Pharmaceuticals Healthcare Biotechnology

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