ESOPE-Equivalent Pulsing Protocols for Calcium Electroporation: An In Vitro Optimization Study on 2 Cancer Cell Models

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Standard

ESOPE-Equivalent Pulsing Protocols for Calcium Electroporation : An In Vitro Optimization Study on 2 Cancer Cell Models. / Romeo, Stefania; Sannino, Anna; Scarfì, Maria Rosaria; Vernier, P. Thomas; Cadossi, Ruggero; Gehl, Julie; Zeni, Olga.

I: Technology in Cancer Research and Treatment, Bind 17, 1533033818788072, 2018, s. 1-10.

Publikation: Bidrag til tidsskriftTidsskriftartikelForskningfagfællebedømt

Harvard

Romeo, S, Sannino, A, Scarfì, MR, Vernier, PT, Cadossi, R, Gehl, J & Zeni, O 2018, 'ESOPE-Equivalent Pulsing Protocols for Calcium Electroporation: An In Vitro Optimization Study on 2 Cancer Cell Models', Technology in Cancer Research and Treatment, bind 17, 1533033818788072, s. 1-10. https://doi.org/10.1177/1533033818788072

APA

Romeo, S., Sannino, A., Scarfì, M. R., Vernier, P. T., Cadossi, R., Gehl, J., & Zeni, O. (2018). ESOPE-Equivalent Pulsing Protocols for Calcium Electroporation: An In Vitro Optimization Study on 2 Cancer Cell Models. Technology in Cancer Research and Treatment, 17, 1-10. [1533033818788072]. https://doi.org/10.1177/1533033818788072

Vancouver

Romeo S, Sannino A, Scarfì MR, Vernier PT, Cadossi R, Gehl J o.a. ESOPE-Equivalent Pulsing Protocols for Calcium Electroporation: An In Vitro Optimization Study on 2 Cancer Cell Models. Technology in Cancer Research and Treatment. 2018;17:1-10. 1533033818788072. https://doi.org/10.1177/1533033818788072

Author

Romeo, Stefania ; Sannino, Anna ; Scarfì, Maria Rosaria ; Vernier, P. Thomas ; Cadossi, Ruggero ; Gehl, Julie ; Zeni, Olga. / ESOPE-Equivalent Pulsing Protocols for Calcium Electroporation : An In Vitro Optimization Study on 2 Cancer Cell Models. I: Technology in Cancer Research and Treatment. 2018 ; Bind 17. s. 1-10.

Bibtex

@article{6fe7862abc874833957fbc62d9aa82cb,
title = "ESOPE-Equivalent Pulsing Protocols for Calcium Electroporation: An In Vitro Optimization Study on 2 Cancer Cell Models",
abstract = "Reversible electroporation is used to increase the uptake of chemotherapeutic drugs in local tumor treatment (electrochemotherapy) by applying the pulsing protocol (8 rectangular pulses, 1000 V/cm, 100 µs) standardized in the framework of the European Standard Operating Procedure on Electrochemotherapy multicenter trial. Currently, new electrochemotherapy strategies are under development to extend its applicability to tumors with different histology. Electrical parameters and drug type are critical factors. A possible approach is to test pulse parameters different from European Standard Operating Procedure on Electrochemotherapy but with comparable electroporation yield (European Standard Operating Procedure on Electrochemotherapy-equivalent protocols). Moreover, the use of non-toxic drugs combined with electroporation represents the new frontier for electrochemotherapy applications; calcium electroporation has been recently proposed as a simple tool for anticancer therapy. In vitro investigations facilitate the optimization of electrical parameters and drugs for in vivo and clinical testing. In this optimization study, new pulsing protocols have been tested by increasing the pulse number and reducing the electric field with respect to the standard. European Standard Operating Procedure on Electrochemotherapy-equivalent protocols have been identified in HL-60 and A431 cancer cell models, and a higher sensitivity in terms of electroporation yield has been recorded in HL-60 cells. Moreover, cell killing efficacy of European Standard Operating Procedure on Electrochemotherapy-equivalent protocols has been demonstrated in the presence of increasing calcium concentrations on both cell lines. Equivalent European Standard Operating Procedure on Electrochemotherapy protocols can be used to optimize the therapeutic effects in the clinic, where different regions of the same cancer tissue, with different electrical properties, might result in a differential electroporation yield of the standard protocol over the same tissue, or, eventually, in an override of the operational limits of the instrument. Moreover, using calcium can help overcome the drawbacks of standard drugs (side effects, high costs, difficult handling, preparation, and storage procedures). These results support the possibility of new treatment options in both standard electrochemotherapy and calcium electroporation, with clear advantages in the clinic.",
keywords = "A431 cells, calcium electroporation, equivalent protocols, ESOPE, HL-60 cells, in vitro",
author = "Stefania Romeo and Anna Sannino and Scarf{\`i}, {Maria Rosaria} and Vernier, {P. Thomas} and Ruggero Cadossi and Julie Gehl and Olga Zeni",
year = "2018",
doi = "10.1177/1533033818788072",
language = "English",
volume = "17",
pages = "1--10",
journal = "Technology in Cancer Research and Treatment",
issn = "1533-0346",
publisher = "SAGE Publications",

}

RIS

TY - JOUR

T1 - ESOPE-Equivalent Pulsing Protocols for Calcium Electroporation

T2 - An In Vitro Optimization Study on 2 Cancer Cell Models

AU - Romeo, Stefania

AU - Sannino, Anna

AU - Scarfì, Maria Rosaria

AU - Vernier, P. Thomas

AU - Cadossi, Ruggero

AU - Gehl, Julie

AU - Zeni, Olga

PY - 2018

Y1 - 2018

N2 - Reversible electroporation is used to increase the uptake of chemotherapeutic drugs in local tumor treatment (electrochemotherapy) by applying the pulsing protocol (8 rectangular pulses, 1000 V/cm, 100 µs) standardized in the framework of the European Standard Operating Procedure on Electrochemotherapy multicenter trial. Currently, new electrochemotherapy strategies are under development to extend its applicability to tumors with different histology. Electrical parameters and drug type are critical factors. A possible approach is to test pulse parameters different from European Standard Operating Procedure on Electrochemotherapy but with comparable electroporation yield (European Standard Operating Procedure on Electrochemotherapy-equivalent protocols). Moreover, the use of non-toxic drugs combined with electroporation represents the new frontier for electrochemotherapy applications; calcium electroporation has been recently proposed as a simple tool for anticancer therapy. In vitro investigations facilitate the optimization of electrical parameters and drugs for in vivo and clinical testing. In this optimization study, new pulsing protocols have been tested by increasing the pulse number and reducing the electric field with respect to the standard. European Standard Operating Procedure on Electrochemotherapy-equivalent protocols have been identified in HL-60 and A431 cancer cell models, and a higher sensitivity in terms of electroporation yield has been recorded in HL-60 cells. Moreover, cell killing efficacy of European Standard Operating Procedure on Electrochemotherapy-equivalent protocols has been demonstrated in the presence of increasing calcium concentrations on both cell lines. Equivalent European Standard Operating Procedure on Electrochemotherapy protocols can be used to optimize the therapeutic effects in the clinic, where different regions of the same cancer tissue, with different electrical properties, might result in a differential electroporation yield of the standard protocol over the same tissue, or, eventually, in an override of the operational limits of the instrument. Moreover, using calcium can help overcome the drawbacks of standard drugs (side effects, high costs, difficult handling, preparation, and storage procedures). These results support the possibility of new treatment options in both standard electrochemotherapy and calcium electroporation, with clear advantages in the clinic.

AB - Reversible electroporation is used to increase the uptake of chemotherapeutic drugs in local tumor treatment (electrochemotherapy) by applying the pulsing protocol (8 rectangular pulses, 1000 V/cm, 100 µs) standardized in the framework of the European Standard Operating Procedure on Electrochemotherapy multicenter trial. Currently, new electrochemotherapy strategies are under development to extend its applicability to tumors with different histology. Electrical parameters and drug type are critical factors. A possible approach is to test pulse parameters different from European Standard Operating Procedure on Electrochemotherapy but with comparable electroporation yield (European Standard Operating Procedure on Electrochemotherapy-equivalent protocols). Moreover, the use of non-toxic drugs combined with electroporation represents the new frontier for electrochemotherapy applications; calcium electroporation has been recently proposed as a simple tool for anticancer therapy. In vitro investigations facilitate the optimization of electrical parameters and drugs for in vivo and clinical testing. In this optimization study, new pulsing protocols have been tested by increasing the pulse number and reducing the electric field with respect to the standard. European Standard Operating Procedure on Electrochemotherapy-equivalent protocols have been identified in HL-60 and A431 cancer cell models, and a higher sensitivity in terms of electroporation yield has been recorded in HL-60 cells. Moreover, cell killing efficacy of European Standard Operating Procedure on Electrochemotherapy-equivalent protocols has been demonstrated in the presence of increasing calcium concentrations on both cell lines. Equivalent European Standard Operating Procedure on Electrochemotherapy protocols can be used to optimize the therapeutic effects in the clinic, where different regions of the same cancer tissue, with different electrical properties, might result in a differential electroporation yield of the standard protocol over the same tissue, or, eventually, in an override of the operational limits of the instrument. Moreover, using calcium can help overcome the drawbacks of standard drugs (side effects, high costs, difficult handling, preparation, and storage procedures). These results support the possibility of new treatment options in both standard electrochemotherapy and calcium electroporation, with clear advantages in the clinic.

KW - A431 cells

KW - calcium electroporation

KW - equivalent protocols

KW - ESOPE

KW - HL-60 cells

KW - in vitro

U2 - 10.1177/1533033818788072

DO - 10.1177/1533033818788072

M3 - Journal article

C2 - 30021498

AN - SCOPUS:85056693651

VL - 17

SP - 1

EP - 10

JO - Technology in Cancer Research and Treatment

JF - Technology in Cancer Research and Treatment

SN - 1533-0346

M1 - 1533033818788072

ER -

ID: 215235448