Literature DB >> 32414106

Peptide Therapeutics 2.0.

Beatriz G de la Torre1, Fernando Albericio2,3,4.   

Abstract

In recent years, the peptide drug discovery field has shown a high level of dynamism, with hundreds of academic groups working on this topic, the creation of new peptide-focused companies, and the consolidation of peptide business by so-called big pharma [...].

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Year:  2020        PMID: 32414106      PMCID: PMC7287585          DOI: 10.3390/molecules25102293

Source DB:  PubMed          Journal:  Molecules        ISSN: 1420-3049            Impact factor:   4.411


In recent years, the peptide drug discovery field has shown a high level of dynamism, with hundreds of academic groups working on this topic, the creation of new peptide-focused companies, and the consolidation of peptide business by so-called big pharma [1,2,3,4]. In the last five years (2015–2019), the U.S. Food Drug Administration (FDA) have authorized a total of 208 new drugs (150 new chemical entities and 58 biologics) [5,6], 15 of which were peptides or peptide-containing molecules (Table 1), which account for 7% of the total number of drugs [4,7]. This is a rather impressive number, if we consider the efforts of the pharmaceutical industry in peptides in comparison to small molecules (in the context of this work, a peptide is defined as a compound that contains two or more amino acids linked by an amide (peptide) bond and that can be synthesized chemically).
Table 1

Peptide-based drugs approved by the Food Drug Administration (FDA) (2015–2019) [3,4,5,6].

YearActive IngredientTrade NameIndicationFeatures
2015Insulin degludecTresiba®DiabetesModified insulin with an aa deletion and a hexadecanedioic acid via γ-Glu at the Lys (B29)
2015IxazomibNinlar®Multiple myelomaN-Acylated, C-boronic acid dipeptide
2016AdlyxinLixisenatide®Diabetes44 aa GLP-1 peptide with (Lys)6 at the C-terminal
2017Abaloparatide Tymlos®Osteoporosis34 aa analog of parathyroid hormone-related protein
2017Angiotensin IIGiapreza®HypotensionNatural octapeptide
2017Etelcalcetide Parsabiv®HyperparathyroidismAc-DCys-DAla-(DArg)3-DAla-DArg-NH2 linked to L-Cys through a disulfide bridge
2017Macimorelin Macrilen®Growth hormone deficiencyPseudotripeptide N-formylated
2017Plecanatide Trulance®Chronic idiopathic constipation16 aa with two disulfides
2017SemaglutideOzempic®DiabetesGLP-1 peptide (31 aa in the chain) with hexadecanedioic acid via γ-Glu and mini PEG at Lys
2018177Lu DOTA-TATELutathera®Neuroendocrine tumors, theranostic177Lu chelated by DOTA bound to Tyr3-octreotate
201968Ga DOTA-TOCNeuroendocrine tumors, diagnostic68Ga chelated by DOTA bound to Tyr3-octreotide
2019AfamelanotideScenesse®Skin damage and pain13 aa lineal peptide analog of α-MSH
2019BremelanotideVyleesi®Women hypoactive sexual desire7 aa cyclic peptide analog of α-MSH
2019Enfortumab Vedotin-Ejfv PADCEV®Cancers expressing Nectin-4ADC with a synthetic analog of the marine natural peptide dolastatin 10
2019Polatuzumab Vedotin-Piiq Polivy®Diffuse large B-cell lymphomaADC with a synthetic analog of dolastatin 10 (5-residue peptide alcohol)
The chemical structure and medical indication of the active principle ingredient of these drugs show an excellent representation of the diversity of the peptide world. From a chemical structure perspective, it is possible to find small peptides (Ninlar®, Macrilen®); medium-sized peptides (Giapreza®, Scenesse®); homodetic (through amide bonds) cyclic peptides (Vyleesi®); intra- and intermolecular disulfide-containing peptides (Parsabiv®, containing almost exclusively D-amino acids; Trulance®); large peptides (Tymlos®, Lixisenatide®), which in some cases are branched (Ozempic®, Tresiba®); and peptides containing radionuclides [Lutathera®, 68Ga DOTA-TOC (68Ga-labeled 1,4,7,10-tetraazacyclododecane-N,N’,N’’,N’’’-tetraacetic acid-D-Phe1-Tyr3-octreotide)]. In the case of the two antibody drug conjugates (ADC) PADCEV® and Polivy®, the payload is the peptide monomethyl auristatin E (MMAE), a synthetic analog of the marine natural peptide dolastatin 10. MMAE is also the drug contained in Adcetris®, which was approved by the FDA in 2011. Of the seven FDA-approved ADCs to date, three contain a peptide. Moreover, PADCEV® and Polivy® contain the dipeptide Val-Cit as a linker. Another peptide-based linker, Gly-Gly-Phe-Gly, is present in the ADC Enhertu®, which was authorized by the FDA in 2019. Oncology, with five drugs (two radio peptides and two ADCs), metabolism (three), and endocrinology (two) are the most frequent medical indications for peptides. However, cardiovascular conditions, gastroenterology, bone diseases, dermatology, and sexual dysfunction are also targeted by peptides. Of note, between 2015 and 2019, several of the new peptide-based drugs accepted by the FDA came about from the efforts of academic groups. This highlights the importance of fostering solid and efficient cooperation channels between academia and industry with the aim to maintain and improve the well-being of society. In addition to the use of peptides as drugs or in diagnostics, these molecules are playing an increasingly important role as drug delivery systems and as the base for new biomaterials with broad potential applications in medicine. This analysis supports the strength of peptides in the medicinal field. In this context, we have decided to publish a Special Issue in Molecules, termed “Peptide Therapeutics 2.0”, which contains excellent quality research articles and comprehensive reviews on peptides. It is hoped that some of the peptides introduced herein will reach the market in the coming years.
  6 in total

Review 1.  The Current State of Peptide Drug Discovery: Back to the Future?

Authors:  Antoine Henninot; James C Collins; John M Nuss
Journal:  J Med Chem       Date:  2017-08-11       Impact factor: 7.446

2.  Therapeutic peptides.

Authors:  Fernando Albericio; Hendrik G Kruger
Journal:  Future Med Chem       Date:  2012-08       Impact factor: 3.808

Review 3.  Therapeutic peptides: Historical perspectives, current development trends, and future directions.

Authors:  Jolene L Lau; Michael K Dunn
Journal:  Bioorg Med Chem       Date:  2017-07-01       Impact factor: 3.641

Review 4.  2018 FDA Tides Harvest.

Authors:  Danah Al Shaer; Othman Al Musaimi; Fernando Albericio; Beatriz G de la Torre
Journal:  Pharmaceuticals (Basel)       Date:  2019-04-05

Review 5.  The Pharmaceutical Industry in 2019. An Analysis of FDA Drug Approvals from the Perspective of Molecules.

Authors:  Beatriz G de la Torre; Fernando Albericio
Journal:  Molecules       Date:  2020-02-09       Impact factor: 4.411

Review 6.  2019 FDA TIDES (Peptides and Oligonucleotides) Harvest.

Authors:  Danah Al Shaer; Othman Al Musaimi; Fernando Albericio; Beatriz G de la Torre
Journal:  Pharmaceuticals (Basel)       Date:  2020-03-05
  6 in total
  18 in total

Review 1.  Hormone-like conopeptides - new tools for pharmaceutical design.

Authors:  Ashlin Turner; Quentin Kaas; David J Craik
Journal:  RSC Med Chem       Date:  2020-09-24

2.  Applying Promiscuous RiPP Enzymes to Peptide Backbone N-Methylation Chemistry.

Authors:  Snigdha Sarkar; Wenjia Gu; Eric W Schmidt
Journal:  ACS Chem Biol       Date:  2022-07-12       Impact factor: 4.634

3.  NeoPep S: A New Generation of AIMP1-derived Peptide (AdP) Effects on Wound Healing In Vivo.

Authors:  Xin Rui Zhang; Ngoc Chien Pham; Nguyen Thi Thanh Ho; VAN Anh Thi LE; Jun-Kyu Park; Sun-Young Nam; Chan-Yeong Heo
Journal:  In Vivo       Date:  2022 May-Jun       Impact factor: 2.406

Review 4.  Replacement of Less-Preferred Dipolar Aprotic and Ethereal Solvents in Synthetic Organic Chemistry with More Sustainable Alternatives.

Authors:  Andrew Jordan; Callum G J Hall; Lee R Thorp; Helen F Sneddon
Journal:  Chem Rev       Date:  2022-02-24       Impact factor: 72.087

Review 5.  Peptidomimetics Therapeutics for Retinal Disease.

Authors:  Dylan E Parsons; Soo Hyeon Lee; Young Joo Sun; Gabriel Velez; Alexander G Bassuk; Mark Smith; Vinit B Mahajan
Journal:  Biomolecules       Date:  2021-02-24

Review 6.  Plant Antimicrobial Peptides as Potential Tool for Topic Treatment of Hidradenitis Suppurativa.

Authors:  Carlos André Dos Santos-Silva; Paola Maura Tricarico; Lívia Maria Batista Vilela; Ricardo Salas Roldan-Filho; Vinícius Costa Amador; Adamo Pio d'Adamo; Mireli de Santana Rêgo; Ana Maria Benko-Iseppon; Sergio Crovella
Journal:  Front Microbiol       Date:  2021-12-13       Impact factor: 5.640

7.  MultiPep: a hierarchical deep learning approach for multi-label classification of peptide bioactivities.

Authors:  Alexander G B Grønning; Tim Kacprowski; Camilla Schéele
Journal:  Biol Methods Protoc       Date:  2021-11-23

Review 8.  Antimicrobial Peptides Derived From Insects Offer a Novel Therapeutic Option to Combat Biofilm: A Review.

Authors:  Alaka Sahoo; Shasank Sekhar Swain; Ayusman Behera; Gunanidhi Sahoo; Pravati Kumari Mahapatra; Sujogya Kumar Panda
Journal:  Front Microbiol       Date:  2021-06-10       Impact factor: 5.640

9.  Beneficial Impacts of Incorporating the Non-Natural Amino Acid Azulenyl-Alanine into the Trp-Rich Antimicrobial Peptide buCATHL4B.

Authors:  Areetha R D'Souza; Matthew R Necelis; Alona Kulesha; Gregory A Caputo; Olga V Makhlynets
Journal:  Biomolecules       Date:  2021-03-12

10.  New Intracellular Peptide Derived from Hemoglobin Alpha Chain Induces Glucose Uptake and Reduces Blood Glycemia.

Authors:  Renée N O Silva; Ricardo P Llanos; Rosangela A S Eichler; Thiago B Oliveira; Fábio C Gozzo; William T Festuccia; Emer S Ferro
Journal:  Pharmaceutics       Date:  2021-12-16       Impact factor: 6.321

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