Movatterモバイル変換


[0]ホーム

URL:


Jump to content
WikipediaThe Free Encyclopedia
Search

Protease inhibitor (pharmacology)

From Wikipedia, the free encyclopedia
Class of antiviral drugs used to treat HIV/AIDS and hepatitis C
For natural protease inhibitors, seeProtease inhibitor (biology).
icon
This articleneeds attention from an expert in Pharmacology. The specific problem is:non-antiviral types inTemplate:Enzyme inhibition.WikiProject Pharmacology may be able to help recruit an expert.(January 2020)

Protease inhibitors (PIs) aremedications that act by interfering withenzymes that cleave proteins. Some of the most well known areantiviral drugs widely used to treatHIV/AIDS,hepatitis C andCOVID-19. These protease inhibitors prevent viral replication by selectively binding to viralproteases (e.g.HIV-1 protease) and blocking proteolytic cleavage of protein precursors that are necessary for the production of infectiousviral particles.

Protease inhibitors that have been developed and are currently used in clinical practice include:

Given the specificity of the target of these drugs there is the risk, like withantibiotics, of the development of drug-resistant mutated viruses. To reduce this risk, it is common to use several different drugs together that are each aimed at different targets.

In addition to those non-human proteases listed above, inhibitors of human proteases may be used to treat cancer. See the articlesmatrix metalloproteinase inhibitor (–mastat) andproteasome inhibitor (–zomib).[1]

Antiretroviral protease inhibitors

[edit]

Antiretroviral protease inhibitors act by binding to the catalytic site of HIV protease, preventing cleavage of viral polyprotein precursor proteins into functional viral proteins required for viral replication.[4] Most ARPIs are peptide-like molecules which resemble the substrate of the viral protease.[4]

Protease inhibitors were the second class ofantiretroviral drugs developed. The first members of this class,saquinavir,ritonavir, andindinavir, were approved in late 1995–1996. Within two years, annual deaths from AIDS in the United States fell from over 50,000 to approximately 18,000.[5] Prior to this the annual death rate had been increasing by approximately 20% each year.

The number of people in the U.S. dying of HIV fell by 60% in the 2 years following the introduction of the first HIV protease inhibitors
The number of people in the U.S. dying of HIV fell by 60% in the 2 years following the introduction of the first HIV protease inhibitors
NameTrade nameCompanyPatentFDA approval dateNotes
SaquinavirInvirase, FortovaseHoffmann–La RocheU.S. patent 5,196,438December 6, 1995The first protease inhibitor approved by theU.S. Food and Drug Administration (FDA).
RitonavirNorvirAbbVieU.S. patent 5,541,206March 1, 1996AbbVie was part of Abbott Laboratories when patent was granted. As well as being a protease inhibitor in its own right, ritonavir inhibits the breakdown of other protease inhibitors. This property makes it very useful in drug combinations.[6]
IndinavirCrixivanMerck & Co.U.S. patent 5,413,999March 13, 1996
NelfinavirViraceptHoffmann–La RocheU.S. patent 5,484,926March 14, 1997
AmprenavirAgeneraseGlaxoSmithKlineU.S. patent 5,585,397April 15, 1999The sixteenth FDA-approved antiretroviral. It was the first protease inhibitor approved for twice-a-day dosing instead of needing to be taken every eight hours. The convenient dosing came at a price, as the dose required is 1,200 mg, delivered in 8 very large gel capsules. Production was discontinued by the manufacturer December 31, 2004, as it has been superseded by fosamprenavir.
LopinavirKaletraAbbVieU.S. patent 5,914,332September 15, 2000Is only marketed as a fixed-dose combination with ritonavir (seelopinavir/ritonavir). AbbVie was part of Abbott Laboratories when patent was granted.
AtazanavirReyatazBristol-Myers SquibbU.S. patent 5,849,911June 20, 2003Atazanavir was the first PI approved for once-daily dosing. It appears to be less likely to cause lipodystrophy and elevated cholesterol as side effects. It may also not be cross-resistant with other PIs.
FosamprenavirLexiva, TelzirGlaxoSmithKlineOctober 20, 2003Aprodrug of amprenavir. The human body metabolizes fosamprenavir in order to form amprenavir, which is the active ingredient. That metabolization increases the duration that amprenavir is available, making fosamprenavir aslow release version of amprenavir and thus reduces the number of pills required versus standard amprenavir.
TipranavirAptivusBoehringer IngelheimJune 22, 2005Also known as tipranavir disodium.
DarunavirPrezistaJanssen TherapeuticsU.S. patent 6,248,775June 23, 2006As of 2016, darunavir is anOARAC recommended treatment option for treatment-naïve and treatment-experienced adults and adolescents.[7] Several ongoingphase III trials are showing a high efficiency for the darunavir/ritonavir combination being superior to thelopinavir/ritonavir combination for first-line therapy.[8] Darunavir is the first drug in a long time that did not come with a price increase. Itleapfrogged two other approved drugs of its type, and is matching the price of a third.[9][10][11]

Non-antiretroviral antiviral activity

[edit]

A drug combination targeting SARS-CoV-2,Paxlovid, was approved in December 2021 to treat COVID-19.[12] It is a combination ofnirmatrelvir, a protease inhibitor targeted to the SARS-CoV-23C-like protease, and ritonavir, which inhibits the metabolism of nirmatrelvir, thereby prolonging its effect.[13]

Side effects

[edit]

Protease inhibitors can cause a syndrome oflipodystrophy,hyperlipidemia,diabetes mellitus type 2, andkidney stones.[14] This lipodystrophy is colloquially known as "Crix belly", afterindinavir (Crixivan).[15]

See also

[edit]

References

[edit]
  1. ^abc"The Use of Stems in the Selection of International Nonproprietary Names (INN) for Pharmaceutical Substances"(PDF). World Health Organization. Retrieved5 November 2016.
  2. ^Programme on International Nonproprietary Names (INN) (February 2023)."Pre-stems: Suffixes used in the selection of INN - February 2023". World Health Organization.
  3. ^Ahmad B, Batool M, Ain QU, Kim MS, Choi S (August 2021)."Exploring the Binding Mechanism of PF-07321332 SARS-CoV-2 Protease Inhibitor through Molecular Dynamics and Binding Free Energy Simulations".International Journal of Molecular Sciences.22 (17): 9124.doi:10.3390/ijms22179124.PMC 8430524.PMID 34502033.
  4. ^ab"Protease Inhibitors (HIV)",LiverTox: Clinical and Research Information on Drug-Induced Liver Injury, Bethesda (MD): National Institute of Diabetes and Digestive and Kidney Diseases, 2012,PMID 31644200, retrieved2024-06-20
  5. ^"HIV Surveillance --- United States, 1981--2008". Retrieved8 November 2013.
  6. ^British National Formulary 69 (69 ed.). Pharmaceutical Pr. March 31, 2015. p. 426.ISBN 9780857111562.
  7. ^"Guidelines for the Use of Antiretroviral Agents in HIV-1-Infected Adults and Adolescents"(PDF). Developed by the DHHS Panel on Antiretroviral Guidelines for Adults and Adolescents—A Working Group of the Office of AIDS Research Advisory Council (OARAC). July 14, 2016. Retrieved5 November 2016.
  8. ^Madruga JV, Berger D, McMurchie M, et al. (Jul 2007). "Efficacy and safety of darunavir-ritonavir compared with that of lopinavir-ritonavir at 48 weeks in treatment-experienced, HIV-infected patients in TITAN: a randomised controlled phase III trial".Lancet.370 (9581):49–58.doi:10.1016/S0140-6736(07)61049-6.PMID 17617272.S2CID 26084893.
  9. ^Liz Highleyman, Patient Advocates Commend Pricing of New PI Darunavir,http://www.hivandhepatitis.com/recent/2006/ad1/063006_a.html
  10. ^Darunavir - first molecule to treat drug-resistant HIV
  11. ^Borman S (2006)."Retaining Efficacy Against Evasive HIV: Darunavir analog to AIDS-virus shapeshifters: Resistance may be futile".Chemical & Engineering News.84 (34): 9.doi:10.1021/cen-v084n034.p009.
  12. ^"First doses of Paxlovid, Pfizer's new COVID pill, are released to states".NPR. 23 December 2021. Retrieved23 December 2021.
  13. ^"Paxlovid: Drug label information". DailyMed, US National Library of Medicine. 18 October 2023. Retrieved14 June 2024.
  14. ^Fantry, LE (2003)."Protease inhibitor-associated diabetes mellitus: A potential cause of morbidity and mortality".Journal of Acquired Immune Deficiency Syndromes.32 (3):243–4.doi:10.1097/00126334-200303010-00001.PMID 12626882.
  15. ^Capaldini, L. (1997). "Protease inhibitors' metabolic side effects: cholesterol, triglycerides, blood sugar, and "Crix belly"".AIDS Treatment News (277):1–4.PMID 11364559.

External links

[edit]
Capsid inhibitors
Entry/fusion inhibitors
(Discovery and development)
Integrase inhibitors
(Integrase strand transfer inhibitors (INSTI))
Maturation inhibitors
Protease Inhibitors (PI)
(Discovery and development)
1st generation
2nd generation
Reverse-transcriptase
inhibitors
(RTIs)
Nucleoside and
nucleotide (NRTI)
Non-nucleoside (NNRTI)
(Discovery and development)
1st generation
2nd generation
Combined formulations
Pharmacokinetic boosters
Experimental agents
Uncoating inhibitors
Transcription inhibitors
Translation inhibitors
BNAbs
Other
Failed agents
°DHHSrecommendedinitial regimen options.Formerly or rarely used agent.
RNA virusantivirals (primarilyJ05, alsoS01AD andD06BB)
Hepatitis C
NS3/4A protease inhibitors (–previr)
NS5A inhibitors (–asvir)
NS5BRNA polymerase inhibitors (–buvir)
Combination drugs
Hepatitis D
Picornavirus
Anti-influenza agents
Multiple/general
Interferon
3CL protease inhibitors (–trelvir)
RNA pol inhibitors
Multiple/Unknown/Other
Class
Substrate
Oxidoreductase (EC 1)
Transferase (EC 2)
Hydrolase (EC 3)
Lyase (EC 4)
Miscellaneous
Retrieved from "https://en.wikipedia.org/w/index.php?title=Protease_inhibitor_(pharmacology)&oldid=1311683504"
Category:
Hidden categories:

[8]ページ先頭

©2009-2025 Movatter.jp