Poster Sessions

Posters will be organized in three poster sessions and will be displayed in the lobby in front of the lecture rooms. The poster numbers listed in the Conference Program booklet and in the Book of Abstracts will be attached to the poster panels. The authors are requested to be present at their posters during the poster sessions. Materials for poster mounting will be available on the poster board. The preferable size for preparing the poster is A0 (portrait format: 84.1 cm (w) x 118.4 cm (h)). Posters are requested to be removed by the presenters right after each poster session. The organizers take no responsibility for leftover posters.



POSTER SESSION 1: Monday (Sep 5th) - Topics 1, 2, 4, 6, 7, 8, 9
POSTER SESSION 2: Tuesday (Sep 6th) - Topics 1, 2, 3, 4, 8, 9
POSTER SESSION 3: Thursday (Sep 8th) - Topics 1, 2, 3, 4, 5, 8, 10

Poster code: P[session number]-[poster number]-[topic]
= nominated for The Young Researcher Presentation Awards (YRPA)


Poster Session 1 - Monday (Sep 5th)

TOPIC: 1. Medical treatment with plasmas

Naoaki YOKOYAMA
Obihiro University, Obihiro, JAPAN
[P1-1-1] Effect of plasma-treatment on the in vitro growth of Trypanosoma brucei

Ihn HAN
Kwangwoon University, Seoul, SOUTH KOREA
[P1-2-1] Role of non-thermal atmospheric pressure bio-compatible plasma in bone tissue engineering and regeneration

Sander BEKESCHUS
INP Greifswald, Greifswald, GERMANY
[P1-3-1] A flow cytometry genotoxicity assay to evaluate the safety of cold physical plasma sources

Laura BARILLAS
COSTA RICA Institute of Technology, Cartago, COSTA RICA
[P1-4-1] Plasma medicine research in COSTA RICA: Overview of first steps

Uroš CVELBAR
Jožef Stefan Institute, Ljubljana, SLOVENIA
[P1-5-1] Localized plasma treatment for targeted intra-operative immobilization and demise of lens epithelial cells

Alexandr DEJNEKA
Czech Academy of Sciences, Prague, CZECHIA
[P1-6-1] Preclinical testing of non-thermal air plasma in veterinary medicine

TOPIC: 2. Plasma-cell and plasma-tissue interactions, biological reactions
SUBTOPIC: RONS + oxidative stress


Juliana ŠIMONČICOVÁ
Slovak University of Technology, Bratislava, SLOVAKIA
[P1-7-2] Oxidative response to low temperature plasma exposure in Aspergillus flavus

Toshihiko EKI
Toyohashi University of Technology, Toyohashi, JAPAN
[P1-8-2] Development and characterization of the reporter gene assays in yeast for detecting oxidative stress and DNA damage

TOPIC: 2. Plasma-cell and plasma-tissue interactions, biological reactions
SUBTOPIC: PAW/PAM and cells


Hachiro YASUDA
Toyohashi University of Technology, Toyohashi, JAPAN
[P1-9-2] Characterization of chemical species in plasma treated water essential for inactivation of cells and proteins

Hirokazu HARA
Gifu Pharmaceutical University, Gifu, JAPAN
[P1-10-2] Intracellular free zinc plays an important role in plasma-activated medium-induced cell death

Hiroshi HASHIZUME
Nagoya University, Nagoya, JAPAN
[P1-11-2] Selective killing of human breast cancer cells by plasma-activated medium

Yutaka KAMIMURA
Nagoya University Graduate School of Medicine, Nagoya, JAPAN
[P1-12-2] Plasma activated medium change ASCs cytokine profile
post-deadline update: presented by Hiromasa TANAKA

Yang PENG
Nagoya University Graduate School of Medicine, Nagoya, JAPAN
[P1-13-2] Plasma-activated medium inhibits metastatic tendency of ovarian cancer cells in vitro

Michael KEIDAR
George Washington University, Washington, DC, USA
[P1-14-2] Induction of apoptosis in human gastric carcinoma cancer cells by cold atmospheric plasma generated in water

Chae Bok LEE
Kwangwoon University, Seoul, SOUTH KOREA
[P1-15-2] Macrophage M1/M2 regulation by plasma activated NO-water

Anna MISEROCCHI
University of Bologna, Bologna, ITALY
[P1-16-2] Study of potential cytotoxicity on eukaryotic cells associated with the use of plasma activated liquids in dental applications

TOPIC: 2. Plasma-cell and plasma-tissue interactions, biological reactions
SUBTOPIC: Biomolecules


Ionuţ TOPALĂ
Alexandru Ioan Cuza University, Iaşi, ROMANIA
[P1-17-2] Direct exposure of amino acids and proteins powders to atmospheric pressure helium plasmas with impurities

Iulia-Elena VLAD
Babes-Bolyai University, Cluj-Napoca, ROMANIA
[P1-18-2] Protein modification at plasma - liquid interaction

Caitlin HESLIN
Dublin Institute of Technology, Dublin, IRELAND
[P1-19-2] Safety considerations for the application of cold plasma in medicine - cytotoxic/mutagenic potential

Andreas HELMKE
Fraunhofer IST, Göttingen, GERMANY
[P1-20-2] XPS study on the modification of amino acids by cold atmospheric plasma

Marie BRETON
Paris-Sud University, Orsay, FRANCE
[P1-21-2] Chemical modification of unsaturated lipids treated by atmospheric plasma jet

Hirofumi KURITA
Toyohashi University of Technology, Toyohashi, JAPAN
[P1-22-2] Evaluation methods of DNA strand breaks induced by exposure to an atmospheric pressure plasma

Shunsuke YOSHIZAWA
University of Tsukuba, Tsukuba, JAPAN
[P1-23-2] Biochemical mechanism of protein inactivation in aqueous solution by low temperature atmospheric plasma jet

Masaharu SHIRATANI
Kyushu University, Fukuoka, JAPAN
[P1-24-2] A comparative study for action of gamma and plasma irradiation dose on thermodynamics of protein

TOPIC: 4. Agricultural and food applications of plasmas
SUBTOPIC: Seeds


Katarína KUČEROVÁ
Comenius University, Bratislava, SLOVAKIA
[P1-25-4] The effect of cold air plasma activated water on germination and growth of wheat seeds

Veronika MEDVECKÁ
Comenius University, Bratislava, SLOVAKIA
[P1-26-4] The effect of atmospheric pressure plasma on soya beans

Anna ZAHORANOVÁ
Comenius University, Bratislava, SLOVAKIA
[P1-27-4] The effect of low-temperature plasma on the maize seeds: Germination improvement and microorganisms inactivation

Olga STEPANOVA
Saint Petersburg State University, Saint Petersburg, RUSSIA
[P1-28-4] Introduction to plasma agriculture: controlled parameters and some experimental procedures

Jean-Michel POUVESLE
University of Orléans, Orléans, FRANCE
[P1-29-4] Evaluation of plasma component effects in LTNTP seed treatments

Yeunsoo PARK
National Fusion Research Institute, Gunsan, SOUTH KOREA
[P1-30-4] The biological effects of surface dielectric barrier discharge on seed germination and plant growth with barley

Mansour KHORAM
Islamic Azad University, Borujerd, IRAN
[P1-31-4] Effect of low pressure radio frequency plasma on ajwain seed germination

TOPIC: 4. Agricultural and food applications of plasmas
SUBTOPIC: PAW application


Junghyun LIM
National Fusion Research Institute, Gunsan, SOUTH KOREA
[P1-32-4] Determination of activation time of PAW and its application to fresh-cut potato

Romolo LAURITA
University of Bologna, Bologna, ITALY
[P1-33-4] Plasma activated water (PAW) for grapevine yellows disease management

Romolo LAURITA
University of Bologna, Bologna, ITALY
[P1-34-4] Plasma activated water as sustainable tool to control bacterial disease severity on tomato plants

TOPIC: 6. Plasma-surface interactions and surface functionalizations for biomedical applications

Riccardo TONINI
University of Brescia, Brescia, ITALY
[P1-35-6] Cold atmospheric plasma (CAP) treatment to improve the bonding strength of adhesive-dentin interface in dental composite restoration

Anna LIGUORI
University of Bologna, Bologna, ITALY
[P1-36-6] Single step process for the co-deposition of nanocomposite antibacterial coatings using a non-equilibrium atmospheric pressure plasma jet

Pietro FAVIA
University of Bari, Bari, ITALY
[P1-37-6] Bio-composite coatings for biomedical applications

Alenka VESEL
Jožef Stefan Institute, Ljubljana, SLOVENIA
[P1-38-6] Surface modification of PET polymer in SO2/O2 plasma for improved cell adhesion

Ita JUNKAR
Jožef Stefan Institute, Ljubljana, SLOVENIA
[P1-39-6] Improving biocompatible properties of titanium implants by highly reactive oxygen plasma

Jaroslav KOUSAL
Charles University, Prague, CZECHIA
[P1-40-6] Etching of model thin films of biological contamination using low-temperature atmospheric plasma jet

Cristina CANAL
Polytechnic University of Catalonia, Barcelona, SPAIN
[P1-41-6] Plasma polymerization on β-TCP for the design of antibiotic delivery systems in bone repair surgery

Judit BUXADERA-PALOMERO
Technical University of Catalonia, Barcelona, SPAIN
[P1-42-6] Modulation of doxycycline release from titanium implants by a plasma polymerized polyethylene glycol coating

Kanupriya KHURANA
Technical University of Catalonia, Barcelona, SPAIN
[P1-43-6] Fundamental studies of plasma PEG coatings on bone bioceramics for drug release

Jang-Hsing HSIEH
Ming Chi University of Technology, New Taipei City, TAIWAN
[P1-44-6] Antibacterial properties and biocompatibility of Ta-(NCF) thin films

Tomy ABUZAIRI
Shizuoka University, Hamamatsu, JAPAN
[P1-45-6] Patterning of biomolecules onto carbon nanotube array via atmospheric pressure plasma jet

Hidehiko YASHIRO
AIST, Tsukuba, JAPAN
[P1-46-6] Enhanced bone-bonding of zirconia ceramics by femtosecond laser processing

TOPIC: 7. Fundamentals of atmospheric plasmas

Tomonori HOTTA
University of Tsukuba, Tsukuba, JAPAN
[P1-47-7] Time evolutions of the metastable helium atoms in a low energy atmospheric pressure plasma using a laser absorption spectroscopic measurement
post-deadline update: presented by Hajime SAKAKITA

Hiromasa YAMADA
University of Tsukuba, Tsukuba, JAPAN
[P1-48-7] Study on propagation mode (bullet or striation) of a low energy atmospheric pressure plasma

Ryo KUMAGAI
Tohoku University, Sendai, JAPAN
[P1-49-7] Observation of propagation process of negative streamer in water

Chen CHEN
Xi'an Jiaotong University, Xi'an, CHINA
[P1-50-7] Space- and time-resolved LIF measurement of absolute concentration of nitric oxide produced by atmospheric air surface plasma

Paolo SERI
University of Bologna, Bologna, ITALY
[P1-51-7] Geometry optimization of linear and annular plasma synthetic jet actuators for enhanced transport of reactive species

Florent SAINCT
INU Champollion, Albi, FRANCE
[P1-52-7] Experimental study of an asymmetric DBD APPJ

Sylvain ISÉNI
University of Orléans, Orléans, FRANCE
[P1-53-7] Electric field and ionization waves in pulsed atmospheric plasma streams (PAPS): complementary in situ diagnostics

TOPIC: 8. Plasma sources for biomedical applications

Antoine ROUSSEAU
École Polytechnique, Palaiseau, FRANCE
[P1-54-8] Dielectric losses in DBDs: correlation between in vitro and in vivo experiments with modeling

Paulien SMITS
Eindhoven University of Technology, Eindhoven, the NETHERLANDS
[P1-55-8] Considerations in designing and testing plasma devices for medical applications

Bouke BOEKEMA
Association of Dutch Burn Centres, Beverwijk, the NETHERLANDS
[P1-56-8] In vitro efficacy and safety of a new flexible volume DBD device for the treatment of diabetic foot ulcers
post-deadline update: presented as oral presentation on Tuesday, Room A, 11:50

Björn OFFERHAUS
Ruhr University, Bochum, GERMANY
[P1-57-8] Characterisation of a dielectric barrier surface discharge - space resolution and homogeneity

Frederike KOGELHEIDE
Ruhr University, Bochum, GERMANY
[P1-58-8] Tailoring a dielectric barrier discharge regarding wound healing by adjusting power density and gas composition

Ahmed ZAKI
Zagazig University, Zagazig, EGYPT
[P1-59-8] Low-cost DBD plasma hand sanitizer using air and tap water enriched by hydrogen peroxide

Chanchai CHUTSIRIMONGKOL
PhotoBioCare, Nonthaburi, THAILAND
[P1-60-8] Non thermal atmospheric DBD plasma: Medical application studies in Thailand

Sang-You KIM
Hanyang University, Seoul, SOUTH KOREA
[P1-61-8] A large area drug powder treatment and transport system with linear ICP sources and particle control devices
post-deadline update: presented by Hye Teak OH

Sang-You KIM
Hanyang University, Seoul, SOUTH KOREA
[P1-62-8] Measurement of molecular species generated in atmospheric surface dielectric barrier discharges with dielectric polyimide
post-deadline update: presented by Hye Teak OH

Yutaka FUJIWARA
University of Tsukuba, Tsukuba, JAPAN
[P1-63-8] Study on the moving striation phenomena of a low energy atmospheric pressure neon plasma flare using a high speed camera
post-deadline update: presented by Hajime SAKAKITA

Hiromasa YAMADA
University of Tsukuba, Tsukuba, JAPAN
[P1-64-8] Review of plasma characteristic measurements of a low energy atmospheric pressure plasma for blood coagulation

Olena SOLOMENKO
Taras Shevchenko National University, Kyiv, UKRAINE
[P1-65-8] Microplasma atmospheric pressure DC system with vortex gas flow

TOPIC: 9. Plasma and liquid diagnostics and sensors

Branislav PONGRÁC
Czech Academy of Sciences, Prague, CZECHIA
[P1-66-9] Time-resolved optical diagnostics of ns-pulsed underwater discharge

Amel ZERROUKI
Paul Sabatier University, Toulouse, FRANCE
[P1-67-9] OES spectroscopic measurements of temperatures and densities of charged particles in micro-air plasma for gene transfection

Arthur SALMON
Centrale Supelec, Chatenay-Malabry, FRANCE
[P1-68-9] Characterization of RONS produced by pulsed atmospheric pressure plasma sources in air and nitrogen


Poster Session 2 - Tuesday (Sep 6th)

TOPIC: 1. Medical treatment with plasmas
SUBTOPIC: Skin and wounds


Vladyslava FANTOVA
Czech Academy of Sciences, Prague, CZECHIA
[P2-1-1] Inactivation of dermatophyte infection by non-thermal plasma on animal model

Victor N. VASILETS
Russian Academy of Sciences, Chernogolovka, RUSSIA
[P2-2-1] Application of air plasma generated nitric oxide for healing of cornea wounds

Sebastian von PODEWILS
University Medicine, Greifswald, GERMANY
[P2-3-1] Case report: Cold plasma effectively eradicates actinic keratosis of the scalp after one treatment course

Janik BRÜGGEMEIER
University of Greifswald, Greifswald, GERMANY
[P2-4-1] Cold atmospheric plasma for mild blood coagulation in visceral surgery

Yoshihiro AKIMOTO
Kyorin University School of Medicine, Tokyo, JAPAN
[P2-5-1] Expression of galectins and alpha smooth muscle actin in low-temperature plasma-treated healing skin

Yudai NOMURA
Kobe University, Kobe, JAPAN
[P2-6-1] Investigation of blood coagulation effect of non-thermal multi-gas plasma jet on in vitro and in vivo for endoscopic use

TOPIC: 2. Plasma-cell and plasma-tissue interactions, biological reactions
SUBTOPIC: Skin and wounds


Satoshi KITAZAKI
Fukuoka Institute of Technology, Fukuoka, JAPAN
[P2-7-2] Effects of non-thermal atmospheric-pressure plasma irradiation on skin in hairless mice

Masashi UEDA
Okayama University, Okayama, JAPAN
[P2-8-2] Comparison of inflammation after hemostasis with non-thermal plasma or thermal coagulation: a histological and nuclear medical evaluation

Julia van der LINDE
University of Greifswald, Greifswald, GERMANY
[P2-9-2] Repeated cold atmospheric plasma application to intact skin causes no sensitization in vivo - an OECD protocol

Monika GELKER
Hawk University of Applied Sciences and Arts, Göttingen, GERMANY
[P2-10-2] Plasma-induced modification of the dermal permeability

Enrico TRALDI
University of Bologna, Bologna, ITALY
[P2-11-2] Treatment of infected ex-vivo human skin tissue with a low power atmospheric inductively coupled plasma source optimized through design oriented simulations

Vandana MILLER
Drexel University, Camden, NJ, USA
[P2-12-2] Immunomodulatory effects of nsDBD plasma in a polarized model of human skin

Šárka KUBINOVÁ
Czech Academy of Sciences, Prague, CZECHIA
[P2-13-2] Non-thermal air plasma in skin wound healing
post-deadline update: presented as oral presentation on Tuesday, Room A, 11:35

TOPIC: 2. Plasma-cell and plasma-tissue interactions, biological reactions
SUBTOPIC: Transdermal drug delivery


Jaroslav KRIŠTOF
Shizuoka University, Hamamatsu, JAPAN
[P2-14-2] Study of interaction between plasma and stratum corneum for transdermal drug delivery

TOPIC: 2. Plasma-cell and plasma-tissue interactions, biological reactions
SUBTOPIC: Bacteria, cells and tissues


Stanislav KYZEK
Comenius University, Bratislava, SLOVAKIA
[P2-15-2] Monitoring of low temperature plasma effect in combination with hypericin on human lymphocytes

Matej KLAS
Comenius University, Bratislava, SLOVAKIA
[P2-16-2] Influence of NOx on selective apoptosis of cells

Barbora TARABOVÁ
Comenius University, Bratislava, SLOVAKIA
[P2-17-2] Effects induced on the cell membrane of Escherichia coli by the cold air plasma and the PAW

Peter POLČIC
Comenius University, Bratislava, SLOVAKIA
[P2-18-2] Effects of reactive plasma particles to yeast cells using genetic mutants

Karol HENSEL
Comenius University, Bratislava, SLOVAKIA
[P2-19-2] Air transient spark discharge vs. helium plasma jet: Their effects on water, bacteria, cells and biomolecules

Masaru HORI
Nagoya University, Nagoya, JAPAN
[P2-20-2] Comprehensive model on interactions among plasmas, liquids, intracellular molecules and animals towards a plasma medical innovation

Yoshimichi NAKATSU
Kyushu University, Fukuoka, JAPAN
[P2-21-2] Mutagenesis in human and mouse cells irradiated by non-thermal atmospheric air plasma

Keita SODA
University of Tokyo, Tokyo, JAPAN
[P2-22-2] Plasma irradiation effects on tissues in the abdominal adhesion mouse model

Akira YONESU
Ryukyu University, Nishihara, JAPAN
[P2-23-2] Influence of plasma irradiation on silkwarm

Youbin SEOL
KAIST, Daejeon, SOUTH KOREA
[P2-24-2] On the toxicity of the atmospheric pressure pulsed plasma on photosynthetic organs

Cristina MUJA
INU Champollion, Albi, FRANCE
[P2-25-2] Sublethal injury and cell membrane damage in bacterial cells generated by APPJ exposure

Jean-Michel POUVESLE
University of Orléans, Orléans, FRANCE
[P2-26-2] Cell response to He, He-O2 plasma and plasma electric field alone treatments

Marco KREWING
Ruhr University, Bochum, GERMANY
[P2-27-2] Genome-wide screening for plasma-sensitive mutants reveals genetic basis for bacterial plasma tolerance

Deborah O'CONNELL
University of York, York, UNITED KINGDOM
[P2-28-2] Low temperature plasma induces a rapid oxidative stress response in primary prostate epithelial cells

Svetlana ERMOLAEVA
Gamaleya Research Institute, Moscow, RUSSIA
[P2-29-2] Effects of cold microwave argon plasma on human fibroblasts are dependent on frequency of cell treatments

Kobra HAJIZADEH
Kharazmi University, Tehran, IRAN
[P2-30-2] Comparison of charged particles and electric field effect of cold atmospheric plasma on DNA damage

TOPIC: 2. Plasma-cell and plasma-tissue interactions, biological reactions
SUBTOPIC: Gene transfection


Yoshihisa IKEDA
Ehime University, Matsuyama, JAPAN
[P2-31-2] Membrane permeabilization induced by microplasma irradiation

Yoshihisa IKEDA
Ehime University, Matsuyama, JAPAN
[P2-32-2] Cytotoxicity of plasma gene transfection

Masafumi JINNO
Ehime University, Matsuyama, JAPAN
[P2-33-2] Clathrin-mediated endocytosis contribution to plasma gene transfection

TOPIC: 3. Plasma-based sterilization/decontamination

Hiroaki KAWANO
Tokyo Institute of Technology, Yokohama, JAPAN
[P2-34-3] Investigation of bactericidal factors in CO2 plasma bubbling

Masafumi ITO
Meijo University, Nagoya, JAPAN
[P2-35-3] Inactivation factors of microorganisms in solutions treated with neutral oxygen radical source

Shuma SUGAWARA
Tokyo Institute of Technology, Yokohama, JAPAN
[P2-36-3] Plasma bubbling inactivation effect on floating and adhesive bacteria

Takashi YOKOYAMA
Osaka University, Suita, JAPAN
[P2-37-3] Disinfection of infection models using human extracted tooth and porcine skin by plasma-treated water with the reduced-pH method

Meike MÜLLER
German Aerospace Center, Wessling, GERMANY
[P2-38-3] Cold atmospheric plasma technology for decontamination of space equipment

Sandra MORITZ
Justus Liebig University, Giessen, GERMANY
[P2-39-3] Inactivation of Enterococcus mundtii by indirect plasma treatment using surface micro-discharge electrode

Anna MISEROCCHI
University of Bologna, Bologna, ITALY
[P2-40-3] Cold atmospheric plasma treatment of infected skin tissue: evaluation of sterility, viability and integrity

Elena SYSOLYATINA
Gamaleya Research Institute, Moscow, RUSSIA
[P2-41-3] Bacterial eradication by synergy of argon non-thermal plasma jet and silicon nanoparticles

Vladyslava FANTOVA
Czech Academy of Sciences, Prague, CZECHIA
[P2-42-3] Effect of electrode material on bactericidal properties of water treated with DC-operated plasma jet

Zlata TUČEKOVÁ
Comenius University, Bratislava, SLOVAKIA
[P2-43-3] Inactivation of Escherichia coli using atmospheric pressure non-thermal plasma of diffuse coplanar surface barrier discharge

TOPIC: 4. Agricultural and food applications of plasmas
SUBTOPIC: Degradation of toxic compounds


Natasa HOJNIK
Jožef Stefan Institute, Ljubljana, SLOVENIA
[P2-44-4] Plasma degradation of toxic fungal metabolites

Georg AVRAMIDIS
Hawk University of Applied Sciences and Arts, Göttingen, GERMANY
[P2-45-4] Decay of fungal metabolites by atmospheric pressure plasma

Hamid GHOMI
Shahid Beheshti University, Tehran, IRAN
[P2-46-4] Elimination of diazinon insecticide from cucumber surface with low temperature plasma treatment

Hamid GHOMI
Shahid Beheshti University, Tehran, IRAN
[P2-47-4] Reduction of chemical and microbial contamination of landfill leachate using plasma discharge

TOPIC: 4. Agricultural and food applications of plasmas
SUBTOPIC: Plant growth


Sang Hye JI
Kwangwoon University, Seoul, SOUTH KOREA
[P2-48-4] Study on the activation of plant growth-promoting bacteria (PGPB) within rice plant by non-thermal atmospheric pressure plasma treatment

Vandana MILLER
Drexel University, Camden, NJ, USA
[P2-49-4] Gliding arc plasma reduces water consumption while accelerating Arabidopsis thaliana growth and fecundity

Riku NAKANO
Kyushu University, Fukuoka, JAPAN
[P2-50-4] Mechanism of growth enhancement of plants irradiated by active oxygen species in oxygen plasma

TOPIC: 8. Plasma sources for biomedical applications

Thomas MAHO
University of Orléans, Orléans, FRANCE
[P2-51-8] New plasma sterilization process for packaged medical devices: plasma diagnosis and medical pouch characterization.

Kostiantyn ACHKASOV
Sairem SAS, Neyron, FRANCE
[P2-52-8] Compact plasma sources based on microwave solid-state technology for industrial and laboratory applications in medicine

Zuzana KOVAĽOVÁ
Comenius University, Bratislava, SLOVAKIA
[P2-53-8] Bactericidal effects of argon surface discharge in long tube on planktonic bacteria

František KRČMA
Brno University of Technology, Brno, CZECHIA
[P2-54-8] New plasma sources for biomedical applications

Lars ten BOSCH
Hawk University of Applied Sciences and Arts, Göttingen, GERMANY
[P2-55-8] Cold atmospheric pressure plasma - a novel pediculosis treatment approach

Ines BÜRGER
Ruhr University, Bochum, GERMANY
[P2-56-8] Characterization of plasma used for electrosurgical cutting by means of optical emission spectroscopy and a high speed camera

Stefan HORN
INP Greifswald, Greifswald, GERMANY
[P2-57-8] On the development of an endoscopic atmospheric plasma source for pulmonary tuberculosis

Yoshihisa IKEDA
Ehime University, Matsuyama, JAPAN
[P2-58-8] High-efficient and high-survivability plasma gene transfection by minimizing plasma and optimizing electrodes configuration

TOPIC: 9. Plasma and liquid diagnostics and sensors
SUBTOPIC: PAW and RONS diagnostics


Thapanut SARINONT
Kyushu University, Fukuoka, JAPAN
[P2-59-9] A comparative study of reactive oxygen species dose provided by atmospheric plasma and gamma ray irradiation using iodine-starch reaction

Giichiro UCHIDA
Osaka University, Osaka, JAPAN
[P2-60-9] Effects of plasma-irradiation distance on ROS and RNS productions in liquid

Yukihiro KUROKAWA
Nagoya University, Nagoya, JAPAN
[P2-61-9] Generation of active species in laser-induced-plasma activated medium

Keigo TAKEDA
Nagoya University, Nagoya, JAPAN
[P2-62-9] Diagnostics of gas- and liquid-phase reactive species generated by AC excited atmospheric pressure Ar plasma

Toshiro KANEKO
Tohoku University, Sendai, JAPAN
[P2-63-9] Spatial mapping of gas and aqueous phase OH radicals and plasma-induced effect on cell membrane permeabilization

Katarína KUČEROVÁ
Comenius University, Bratislava, SLOVAKIA
[P2-64-9] The reactive species produced by transient spark discharge in gas and liquid phase and its effect on Escherichia coli

Zdenko MACHALA
Comenius University, Bratislava, SLOVAKIA
[P2-65-9] Metallic nanoparticles in air plasma activated water

Lucel SIRGHI
Alexandru Ioan Cuza University, Iaşi, ROMANIA
[P2-66-9] Surface dielectric barrier discharge in closed volume air

Florian JUDÉE
Paul Sabatier University, Toulouse, FRANCE
[P2-67-9] Detection of free radical species generated by low temperature plasma jet in culture liquid media

Thierry DUFOUR
University of Pierre and Marie Curie, Paris, FRANCE
[P2-68-9] Understanding RO(N)S diffusion and chemical reactivity at the interface, sublayer and in-depth of plasma activated media

Augusto STANCAMPIANO
University of Bologna, Bologna, ITALY
[P2-69-9] Advanced investigation on the plasma-liquid interaction in a plasma jet impinging on a water surface

Mohamed Mokhtar HEFNY
Ruhr University, Bochum, GERMANY
[P2-70-9] Treatment of liquids with plasma and its applications in medicine

Deborah O'CONNELL
University of York, York, UNITED KINGDOM
[P2-71-9] Limitations of spin trapping of the plasma induced species

Chen CHEN
Xi'an Jiaotong University, Xi'an, CHINA
[P2-72-9] Influence of plasma-forming gas on aqueous reaction chemistry activated by atmospheric plasma jet in argon containing gas

Chen CHEN
Xi'an Jiaotong University, Xi'an, CHINA
[P2-73-9] Quantitative measurement and chemical relations of aqueous reactive species induced by a helium plasma jet



Poster Session 3 - Thursday (Sep 8th)

TOPIC: 1. Medical treatment with plasmas
SUBTOPIC: Dentistry


Young Min KIM
Pusan National University, Yangsan, SOUTH KOREA
[P3-1-1] Effective fluoride gel application on deciduous tooth enamel by low temperature atmospheric plasma

TOPIC: 1. Medical treatment with plasmas
SUBTOPIC: Cancer in vivo


Abraham LIN
Drexel University, Camden, NJ, USA
[P3-2-1] Non-thermal plasma induction of immunogenic cell death in an in vivo tumor mouse model

Shahriar MIRPOUR
Shahid Beheshti University, Tehran, IRAN
[P3-3-1] Atmospheric plasma induces 'bystander effect' in the treatment of the breast cancer tumor in in-vivo
post-deadline update: presented as oral presentation by Hamid GHOMI on Wednesday, Room A, 10:15

Shahriar MIRPOUR
Shahid Beheshti University, Tehran, IRAN
[P3-4-1] Effect of the micron size non-thermal atmospheric pressure plasma jet on the breast tumor treatment

TOPIC: 1. Medical treatment with plasmas
SUBTOPIC: PAM and cancer


Joseph-Marie PLEWA
Paul Sabatier University, Toulouse, FRANCE
[P3-5-1] Effects of low temperature plasma activated liquid media on multi-cellular tumor spheroids
post-deadline update: presented by Julie CHAUVIN

Akiyo TANAKA
Kyushu University, Fukuoka, JAPAN
[P3-6-1] Health effects of repeated intraperitoneal injections of plasma-activated medium in mice

Hiroaki KAJIYAMA
Nagoya University Graduate School of Medicine, Nagoya, JAPAN
[P3-7-1] Plasma-irradiated liquid therapy suppresses intraperitoneal metastasis of chemoresistant ovarian cancer

Junichiro IKEDA
Osaka University, Suita, JAPAN
[P3-8-1] Effect of plasma-activated medium (PAM) on cancer-initiating cells for cancer therapy

Hayao NAKANISHI
Aichi Cancer Center, Okazaki, JAPAN
[P3-9-1] Efficacy of intraperitoneal therapy with plasma-activated medium targeting peritoneal micrometastasis as revealed by human gastric cancer cell lines in nude mice

Kae NAKAMURA
Nagoya University Graduate School of Medicine, Nagoya, JAPAN
[P3-10-1] Plasma-activated medium (PAM) inhibits peritoneal metastasis in ovarian cancer mouse model

TOPIC: 2. Plasma-cell and plasma-tissue interactions, biological reactions
SUBTOPIC: Cancer cells and tissues


Machiko IIDA
Nagoya University Graduate School of Medicine, Nagoya, JAPAN
[P3-11-2] Effect of non-equilibrium atmospheric pressure plasmas irradiation on spontaneously developed melanoma in RET-mice

Reoto ONO
Kyushu University, Fukuoka, JAPAN
[P3-12-2] Inactivation effect of DBD on oral cancer cells inside culture medium film

Masaharu SHIRATANI
Kyushu University, Fukuoka, JAPAN
[P3-13-2] Time development of response of cells irradiated by non-thermal atmospheric air plasma

Sun Ja KIM
Dong-A University, Pusan, SOUTH KOREA
[P3-14-2] Selective effects of cold atmospheric pressure plasma on normal and tumor cells

Xiaoqian CHENG
George Washington University, Washington, DC, USA
[P3-15-2] Enhancing cold atmospheric plasma treatment of cancer cells by static magnetic field
post-deadline update: presented by Michael KEIDAR

Eda GJIKA
George Washington University, Washington, DC, USA
[P3-16-2] Plasma-tissue and plasma-cell interactions: the effects of power and treatment duration in cancer therapy
post-deadline update: presented by Michael KEIDAR

Anthony CORDERO-RAMIREZ
Hospital Mexico, San Jose, COSTA RICA
[P3-17-2] In vitro evaluation of survival curves for tissues exposed to atmospheric pressure plasmas combined with ionizing radiation

Steven VANUYTSEL
University of Antwerp, Antwerp, BELGIUM
[P3-18-2] Cold atmospheric-pressure plasma treatment of glioblastoma cells: Influence of working gas and involvement of mitochondria in apoptosis

Emilio MARTINES
Consorzio RFX, Padova, ITALY
[P3-19-2] Effect of indirect plasma treatment on laryngeal cancer cells

Eleonora TURRINI
University of Bologna, Rimini, ITALY
[P3-20-2] Atmospheric non-equilibrium plasma induces apoptosis and oxidative stress pathway regulation in T-lymphoblastoid leukemia cells

TOPIC: 2. Plasma-cell and plasma-tissue interactions, biological reactions
SUBTOPIC: Immune cells


Ku YOUN BAIK
Kwangwoon University, Seoul, SOUTH KOREA
[P3-21-2] The response of myeloid cells to non-thermal plasma

Muna BARAKAT
Queen's University, Belfast, UNITED KINGDOM
[P3-22-2] Effect of atmospheric pressure non-thermal plasma exposure on Pseudomonas aeruginosa-induced cytotoxicity in murine macrophages

Anna LIGUORI
University of Bologna, Bologna, ITALY
[P3-23-2] Cold atmospheric plasma treatment affects membrane markers expression in human monocytes and macrophages

TOPIC: 3. Plasma-based sterilization/decontamination
SUBTOPIC: Biofilms


Emanuele SIMONCELLI
University of Bologna, Bologna, ITALY
[P3-24-3] Qualitative live/dead confocal laser analysis on the decontamination efficacy of CAP treatment on ex-vivo tooth root canals

Martina MODIC
Jožef Stefan Institute, Ljubljana, SLOVENIA
[P3-25-3] Cold atmospheric pressure plasma inactivation of clinically important single and multi-species biofilms

Martina MODIC
Jožef Stefan Institute, Ljubljana, SLOVENIA
[P3-26-3] A comparison of direct and in-direct atmospheric pressure air plasma treatments for the decontamination of Staphylococcus epidermidis biofilm contamination grown on titanium substrates

Fatma IBIS
İzmir Kâtip Çelebi University, İzmir, TURKEY
[P3-27-3] Comparative assessment of antimicrobial efficacy of non-thermal plasma and Er:YAG laser on titanium discs for nonsurgical treatment of peri-implantitis
post-deadline update: presented by Utku Kürşat ERCAN

Aliaksandra KAZAK
B.I.Stepanov Institute of Physics, Minsk, BELARUS
[P3-28-3] Inactivation of consortiums of microorganisms by an air plasma jet at atmospheric pressure

Juliana DELBEN
Uninga, Maringa, BRAZIL
[P3-29-3] Tissue tolerable cold plasma against oral biofilms

Anelise DORIA
Universidade do Vale do Paraiba, Sao Jose dos Campos, BRAZIL
[P3-30-3] Action of argon/water vapor plasma jet on Candida albicans biofilm growth on silicone substrate

Anelise DORIA
Universidade do Vale do Paraiba, Sao Jose dos Campos, BRAZIL
[P3-31-3] Inactivation of biofilms of Candida albicans by atmospheric plasma jet operated in continuous and pulsed mode

TOPIC: 3. Plasma-based sterilization/decontamination
SUBTOPIC: Spores


Katharina STAPELMANN
Ruhr University, Bochum, GERMANY
[P3-32-3] Low pressure plasma inactivation of Bacillus subtilis spores: insights into the mechanisms of spore resistance

Anna KUZMINOVA
Czech Academy of Sciences, Prague, CZECHIA
[P3-33-3] Atmospheric pressure plasma treatment for inactivation of bacterial spores

Padrig FLYNN
Queen's University, Belfast, UNITED KINGDOM
[P3-34-3] Decontamination of Clostridium difficile spores using atmospheric pressure non-thermal plasma

Akira YONESU
Ryukyu University, Nishihara, JAPAN
[P3-35-3] Sterilization using LF-microwave hybrid plasma at atmospheric pressure

TOPIC: 4. Agricultural and food applications of plasmas
SUBTOPIC: Decontamination


Anelise DORIA
Universidade do Vale do Paraiba, Sao Jose dos Campos, BRAZIL
[P3-36-4] Antifungal action of atmospheric plasma on strains of Penicillium spp isolated from onion seeds

Katerina VLKOVÁ
Czech Technical University, Prague, CZECHIA
[P3-37-4] Synergistic effects of essential oregano oil and positive streamer on bacteria and yeasts

Lucia HOPPANOVÁ
Slovak University of Technology, Bratislava, SLOVAKIA
[P3-38-4] Low temperature plasma as an alternative means of reducing the amount of used xenobiotics

Andrea ŽILKOVÁ
Comenius University, Bratislava, SLOVAKIA
[P3-39-4] Cold air plasma pasteurization of a fresh apple juice

Eunjeong HONG
National Fusion Research Institute, Gunsan, SOUTH KOREA
[P3-40-4] The effect of plasma treated water (PTW) for reducing pathogenic microorganism on fruits

Juslan LO
INU Champollion, Albi, FRANCE
[P3-41-4] Microwave coaxial plasma source for spices decontamination

Zifan WAN
Iowa State University, Ames, IA, USA
[P3-42-4] High voltage atmospheric cold plasma treatment of yeast for spoilage prevention

Zifan WAN
Iowa State University, Ames, IA, USA
[P3-43-4] High voltage atmospheric cold plasma treatment of queso fresco cheese for inactivation of Listeria innocua

Zifan WAN
Iowa State University, Ames, IA, USA
[P3-44-4] High voltage atmospheric cold plasma treatment of refrigerated chicken eggs for control of Salmonella enteritidis contamination on the egg shell

Mansour KHORAM
Islamic Azad University, Borujerd, IRAN
[P3-45-1] Decontamination of herbal distillates using spark discharge

TOPIC: 5. Pharmaceutical applications and biochemical/biomolecular engineering with plasmas

Yoshihito YAGYU
Sasebo College, Sasebo, JAPAN
[P3-46-5] Gene expression analysis of Saccharomyces cerevisiae exposed to FE-DBD plasma

Naoyuki KURAKE
Nagoya University, Nagoya, JAPAN
[P3-47-5] Particulates generation in the plasma activated medium (PAM)

Yoshihisa IKEDA
Ehime University, Matsuyama, JAPAN
[P3-48-5] Evaluation of importance of H2O2 in gene transfection

Toshiro KANEKO
Tohoku University, Sendai, JAPAN
[P3-49-5] Effects of multi-stimuli on cell membrane permeability in micro solution plasma

TOPIC: 8. Plasma sources for biomedical applications

Yuichi SETSUHARA
Osaka University, Osaka, JAPAN
[P3-50-8] Effects of surrounding gas flow on ROS and RNS productions in non-thermal plasma-jet system

Zhen LIU
Zhejiang University, Hangzhou, CHINA
[P3-51-8] A pulsed cold plasma jet and its medical application

Magali XAUBET
Institute of Plasma Physics, Buenos Aires, ARGENTINA
[P3-52-8] Optimization process of an atmospheric pressure plasma jet for medical applications

Biswajit BORA
Chileann Nuclear Energy Commission, Santiago, CHILE
[P3-53-8] Electrical and optical characterization of plasma needle to be used for biomedical applications

Mohamed Tahar BENABBAS
Freres Mentouri University, Constantine, ALGERIA
[P3-54-8] Low frequency atmospheric pressure plasma jets for bacteria inactivation on solid surfaces and in aqueous solutions

Adam POLAKOVIČ
Comenius University, Bratislava, SLOVAKIA
[P3-55-8] Cold air plasma source for biomedical applications based on DC corona discharge

Vitalii ZABLOTSKII
Czech Academy of Sciences, Prague, CZECHIA
[P3-56-8] Micro-plasma device for biomedical applications

Jan-Simon BAUDLER
INP Greifswald, Greifswald, GERMANY
[P3-57-8] Progress towards a target-oriented development and benchmarking process for comparable results in biomedical applications

Vittorio COLOMBO
University of Bologna, Bologna, ITALY
[P3-58-8] A novel cold atmospheric plasma device for dental applications

Eric ROBERT
University of Orléans, Orléans, FRANCE
[P3-59-8] Rare gas flow channeling in kHz plasma jet operation

Nofel MERBAHI
Paul Sabatier University, Toulouse, FRANCE
[P3-60-8] Optimization of ring-rod argon plasma jets at atmospheric pressure for biomedical applications

Aboubakar KONE
INU Champollion, Albi, FRANCE
[P3-61-8] Investigation of the interaction between a helium plasma jet and conductive / non-conductive targets

TOPIC: 10. Modeling and numerical simulations

Amel ZERROUKI
Paul Sabatier University, Toulouse, FRANCE
[P3-62-10] Stochastic simulations with experimental validation of plasma-induced poration of cell membranes for gene transfection

Pedro VIEGAS
École Polytechnique, Palaiseau, FRANCE
[P3-63-10] Numerical and experimental study on the dynamics of a micro-second helium plasma gun with various amounts of O2 or N2 admixtures

Jonas van der PAAL
University of Antwerp, Antwerp, BELGIUM
[P3-64-10] Effect of cholesterol and lipid peroxidation on the permeability of ROS through a phospholipid bilayer

Christof VERLACKT
University of Antwerp, Antwerp, BELGIUM
[P3-65-10] Insight in the plasma induced oxidation of peptides at the molecular scale

Jamoliddin RAZZOKOV
University of Antwerp, Antwerp, BELGIUM
[P3-66-10] Modeling phosphatidylserine flip-flop in the plasma membrane of cells: a better insight in apoptosis

Satoshi UCHIDA
Tokyo Metropolitan University, Tokyo, JAPAN
[P3-67-10] Numerical analysis of permeation properties of oxygen active species in cell membrane by classical molecular dynamics

Kazumasa IKUSE
Osaka University, Suita, JAPAN
[P3-68-10] Numerical simulations of plasma-induced metabolic responses of Escherichia coli

Hajime SAKAKITA
AIST, Tsukuba, JAPAN
[P3-69-10] Power distributions of each impedance in the electrical circuit of ionized gas coagulation equipment

Dogan GIDON
University of California, Berkeley, CA, USA
[P3-70-10] Lumped-parameter modeling of atmospheric pressure plasma jets for real-time control applications

Constantinos LAZAROU
University of Cyprus, Nicosia, CYPRUS
[P3-71-10] Numerical investigation of the electric field produced by the interaction of helium plasma jet with normal and cancer cells

Toshifumi YUJI
Miyazaki University, Miyazaki, JAPAN
[P3-72-10] Atmospheric-pressure non-equilibrium DC pulse discharge plasma jet for plasma sterilization treatment techniques in dry powder foods

e-mail: info@icpm6.com
phone: +421 2 60295 618 (Z. Machala)
phone: +421 2 60295 676 (K. Hensel)