Literature DB >> 33504064

Plasma-Conditioned Liquids as Anticancer Therapies In Vivo: Current State and Future Directions.

Xavi Solé-Martí1,2,3, Albert Espona-Noguera1,2,3, Maria-Pau Ginebra1,2,3,4, Cristina Canal1,2,3.   

Abstract

Plasma-conditioned liquids (PCL) are gaining increasing attention in the medical field, especially in oncology, and translation to the clinics is advancing on a good path. This emerging technology involving cold plasmas has great potential as a therapeutic approach in cancer diseases, as PCL have been shown to selectively kill cancer cells by triggering apoptotic mechanisms without damaging healthy cells. In this context, PCL can be injected near the tumor or intratumorally, thereby allowing the treatment of malignant tumors located in internal organs that are not accessible for direct cold atmospheric plasma (CAP) treatment. Therefore, PCL constitutes a very interesting and minimally invasive alternative to direct CAP treatment in cancer therapy, avoiding surgeries and allowing multiple local administrations. As the field advances, it is progressively moving to the evaluation of the therapeutic effects of PCL in in vivo scenarios. Exciting developments are pushing forward the clinical translation of this novel therapy. However, there is still room for research, as the quantification and identification of reactive oxygen and nitrogen species (RONS) in in vivo conditions is not yet clarified, dosage regimens are highly variable among studies, and other more relevant in vivo models could be used. In this context, this work aims to present a critical review of the state of the field of PCL as anticancer agents applied in in vivo studies.

Entities:  

Keywords:  cancer; cold atmospheric plasma; in vivo; plasma-conditioned liquids

Year:  2021        PMID: 33504064      PMCID: PMC7865855          DOI: 10.3390/cancers13030452

Source DB:  PubMed          Journal:  Cancers (Basel)        ISSN: 2072-6694            Impact factor:   6.639


  56 in total

1.  Tumor suppression in the absence of p53-mediated cell-cycle arrest, apoptosis, and senescence.

Authors:  Tongyuan Li; Ning Kon; Le Jiang; Minjia Tan; Thomas Ludwig; Yingming Zhao; Richard Baer; Wei Gu
Journal:  Cell       Date:  2012-06-08       Impact factor: 41.582

2.  Cold atmospheric plasma conveys selectivity on triple negative breast cancer cells both in vitro and in vivo.

Authors:  Liangjian Xiang; Xiaoyu Xu; Shuo Zhang; Dongyan Cai; Xiaofeng Dai
Journal:  Free Radic Biol Med       Date:  2018-06-02       Impact factor: 7.376

3.  Generation of Prostate Cancer Patient-Derived Xenografts to Investigate Mechanisms of Novel Treatments and Treatment Resistance.

Authors:  Hung-Ming Lam; Holly M Nguyen; Eva Corey
Journal:  Methods Mol Biol       Date:  2018

4.  Quantitative monitoring of mouse lung tumors by magnetic resonance imaging.

Authors:  Alexander Sasha Krupnick; Vanessa K Tidwell; John A Engelbach; Vamsi V Alli; Arye Nehorai; Ming You; Haris G Vikis; Andrew E Gelman; Daniel Kreisel; Joel R Garbow
Journal:  Nat Protoc       Date:  2012-01-05       Impact factor: 13.491

5.  Genetically engineered models have advantages over xenografts for preclinical studies.

Authors:  Oren J Becher; Eric C Holland
Journal:  Cancer Res       Date:  2006-04-01       Impact factor: 12.701

Review 6.  Multitargeted therapy of cancer by silymarin.

Authors:  Kumaraguruparan Ramasamy; Rajesh Agarwal
Journal:  Cancer Lett       Date:  2008-05-09       Impact factor: 8.679

Review 7.  Targeting cancer cells by ROS-mediated mechanisms: a radical therapeutic approach?

Authors:  Dunyaporn Trachootham; Jerome Alexandre; Peng Huang
Journal:  Nat Rev Drug Discov       Date:  2009-05-29       Impact factor: 84.694

Review 8.  Humanized Mouse Models of Clinical Disease.

Authors:  Nicole C Walsh; Laurie L Kenney; Sonal Jangalwe; Ken-Edwin Aryee; Dale L Greiner; Michael A Brehm; Leonard D Shultz
Journal:  Annu Rev Pathol       Date:  2016-12-05       Impact factor: 23.472

Review 9.  Patient-derived xenograft models: an emerging platform for translational cancer research.

Authors:  Manuel Hidalgo; Frederic Amant; Andrew V Biankin; Eva Budinská; Annette T Byrne; Carlos Caldas; Robert B Clarke; Steven de Jong; Jos Jonkers; Gunhild Mari Mælandsmo; Sergio Roman-Roman; Joan Seoane; Livio Trusolino; Alberto Villanueva
Journal:  Cancer Discov       Date:  2014-07-15       Impact factor: 39.397

10.  Stabilizing the cold plasma-stimulated medium by regulating medium's composition.

Authors:  Dayun Yan; Niki Nourmohammadi; Ka Bian; Ferid Murad; Jonathan H Sherman; Michael Keidar
Journal:  Sci Rep       Date:  2016-05-13       Impact factor: 4.379

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  4 in total

Review 1.  Effect of Cold Atmospheric Plasma on Epigenetic Changes, DNA Damage, and Possibilities for Its Use in Synergistic Cancer Therapy.

Authors:  Dušan Braný; Dana Dvorská; Ján Strnádel; Tatiana Matáková; Erika Halašová; Henrieta Škovierová
Journal:  Int J Mol Sci       Date:  2021-11-12       Impact factor: 5.923

2.  Irrigation of peritoneal cavity with cold atmospheric plasma treated solution effectively reduces microbial load in rat acute peritonitis model.

Authors:  Mustafa Onur Oztan; Utku Kürşat Ercan; Ayşegül Aksoy Gokmen; Fatma Simsek; Gizem Dilara Ozdemir; Gökhan Koyluoglu
Journal:  Sci Rep       Date:  2022-03-07       Impact factor: 4.379

Review 3.  Open Questions in Cold Atmospheric Plasma Treatment in Head and Neck Cancer: A Systematic Review.

Authors:  Vittoria Perrotti; Vito Carlo Alberto Caponio; Lorenzo Lo Muzio; Eun Ha Choi; Maria Carmela Di Marcantonio; Mariangela Mazzone; Nagendra Kumar Kaushik; Gabriella Mincione
Journal:  Int J Mol Sci       Date:  2022-09-06       Impact factor: 6.208

4.  Differential Effect of Non-Thermal Plasma RONS on Two Human Leukemic Cell Populations.

Authors:  Hager Mohamed; Eric Gebski; Rufranshell Reyes; Samuel Beane; Brian Wigdahl; Fred C Krebs; Katharina Stapelmann; Vandana Miller
Journal:  Cancers (Basel)       Date:  2021-05-18       Impact factor: 6.639

  4 in total

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