Technical program
The LABAT'2020 Conference technical program will be organized in morning and afternoon sessions on different topics.
Conference sessions will start at 08:30 on Tuesday, 9 June 2020 and will end at about 14:00 on Friday, 12 June 2020. The duration of each oral presentation will be 20 minutes followed by 5 minutes for discussion. The final agenda of the conference will be published on this web-page by the end of April 2020.
The official language of the Conference is English, no translation facilities will be provided.
Poster sessions will also be organized during the LABAT’2020 Conference. Authors who prefer to contribute poster(s) rather than oral presentation(s) should inform the Conference Organizers of their preference.
During the first two days of the conference the coffee/tea breaks will be extended to 40 minutes for exhibition and poster viewing.
Authors of oral/poster presentations should refer to the Instructions for Authors section to see the requirements for preparation and submission of extended abstracts and poster preparation.
LIST OF TECHNICAL PAPERS TO BE PRESENTED AT LABAT’2020
CARBON >>
ADDITIVES >>
LEAD-ACID BATTERY TECHNOLOGY >>
SEPARATORS, CORROSION, BATTERY RECYCLING >>
DYNAMIC CHARGE ACCEPTANCE >>
BATTERY MODELING >>
| 1 |
Challenges for lead batteries and ways for them to continue being the most used electrochemical power source B. Monahov, USA, Plante Medalist LABAT’2014 |
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| 2 |
Particle size and surface shape of active materials in lead-acid batteries: impact from free surface energy E. Meissner, Germany, Plante Medalist LABAT’2014 |
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| 3 |
Development of technologies for automotive lead-acid batteries J. Furukawa, Japan, Plante Medalist LABAT’2017 |
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| 4 |
PAM structure, investigated by tubular powder electrode (TPE) G. Papazov, Bulgaria, Plante Medalist LABAT’2017 |
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| CARBON | ||
| 5 | Impact of carbon additives on current and next generation lead batteries – market and technology trends P. Atanassova, Cabot Corp., USA |
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| 6 | How to develop best graphite products for lead-carbon battery applications J.Li, F.Henry, Y.Feng, Superior Graphite Co., USA |
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| 7 | Synthesis of Carbon/Pb nanocomposites and their application to lead-acid battery negative electrode P.Nikolov, V.Boev, A.Aleksandrova, M.Matrakova, IEES-BAS, Bulgaria |
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| 8 | High performance carbons for advanced lead-acid batteries F.Mornaghini, Y.Ahn, D.Cericola, Imerys Graphite & Carbon, Switzerland |
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| 9 | Influence of graphene/carbon black mixtures on lead-acid negative plate performance A.Assuncao, Sp.Pedrosa. A.Souza, E.S.Goncales, ITEEM, Moura, Brazil |
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| 10 | Lead batteries for solar photo-voltaic (SPV) applications: effect of carbon additives S.Arun, U.V.Kiran, S.Mayavan, CSIR-CECRI, India |
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| 11 | Rice husk based porous carbons: a cost-effective carbon-based material for the negative electrode of lead carbon batteries H.Lin, Jilin University, China. Nan Lin, Jilin Kaiyu Electrochemical Energy Storage Technologies Development Co., Ltd., China W.Zhang, J.Yin, King Abdullah University of Science and Technology (KAUST), Saudi Arabia |
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| 12 | Performance enhancement of lead acid battery (LAB) using different carbon additives J.Punjabkesar, H. Coetzer, K.N.Naidoo, Auto X (Pty) Ltd (Willard Batteries), South Africa |
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| 13 | Research on the interaction between sodium lignosulfonate and carbon materials T.Ban, J.Cheng, Shandong Jinkeli Power Sources Technology Co., Ltd. China |
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| 14 | The study of nanostructured carbon as an electrode material for a hybrid device in an acid electrolyte V.A.Grigoreva, S.D.Gritsenko,T.S.Khramkova, M.M.Burashnikova, S.A.Zhdanok, Saratov State University, Russia |
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| 15 | The relationship of the structural and electrochemical characteristics of negative electrodes with the addition of nanostructured carbon for lead-acid batteries T.S.Khramkova,S.D.Gritsenko, V.O.Danilova, M.M.Burashnikova S.A.Zhdanok, Saratov State University, Russia |
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| 16 | Impedance of charged negative electrodes of lead-acid batteries with the addition of nanostructured carbon S.D.Gritsenko, T.S.Khramkova, M.M.Burashnikova, S.A.Zhdanok, I.A.Kazarinov, Saratov State University, Russia |
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| 17 | A new insight on the roles of carbonaceous additives in lead-carbon battery J.Yin, W.Zhang, H.Alshareef, King Abdullah University of Science and Technology (KAUST), Saudi Arabia H.Lin, Jilin University, China. |
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| 18 | Is it possible to replace red lead by carbon in positive plates and to keep the advantages of red lead? P.Nemec-Losert, Hoppecke Batterien, Germany |
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| 19 | An enhancing lead depositing ability on carbon surface via BaSO4 modification for a long cycling life lead-acid battery Zh.Lin, H.Lin, Jilin University, China W.Zhang, J.Yin, King Abdullah University of Science and Technology (KAUST), Saudi Arabia |
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| 20 | Electrodeposited behaviour of Pb2+ on the carbon of negative electrode in a carbon coating lead-carbon battery during high rate cycling J.Bao, H.Lin, Jilin University, China N.Lin, J.Shi, Jilin Kaiyu Electrochemical Energy Storage Technologies Development Co., Ltd., China |
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| 21 | Exploring the application of rice husk-based porous carbon in positive electrodes of lead acid batteries J.Shi, H.Lin, J.Bao, Jilin University, China N.Lin, Jilin Kaiyu Electrochemical Energy Storage Technologies Development Co., Ltd., China |
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| 22 | Enhancing the performance of lead-acid batteries operating under high-rate partial-state-of-charge condition through spraying carbon black H.N.Ho, K.C.Kung, W.C.Huang, S.L.Wu, H.H.Huang, Y.T.Liu, Y.L.Cheng, W.R.Liu, Chung Yuan Christian University,Taiwan |
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| 23 | Electrochemical measurements of single and a coupled lead-graphite felt electrodes in sulfuric acid solution A.Ilginis, E.Griškonis, Kaunas University of Technology, Lithuania |
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| 24 | Investigation of different particle size carbon blacks on lead acid battery performance H.Catalkaya, A.Turhan, O.Demirci, İ.Yırtıcı, S.Eserdag, İnci Gs Yuasa, Turkey |
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| 25 | MOLECULAR REBAR®-based performance additives for lead-acid batteries and mechanism thereof P.Everill, S.Swogger, N.Sugumaran, Black Diamond Structures, LLC, USA |
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| 26 | Benefits and drawback of active carbon in tubular plate of the battery J.Iqbal, Rainbow HI-tech Engineering Company PVT Ltd, Pakistan |
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| 27 | Nanostructured carbon implementation in lead-acid battery technology S.Zhdanok, A.Bobokov, D.Georgiev, Art Monbat AD, Bulgaria |
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| 28 | The effect of additives on the electrical conductivity of negative electrodes P.Wulfert-Holzmann, J.Settelein, G.Sextl, Fraunhofer Institute for Silicate Research ISC, Germany |
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| ADDITIVES | ||
| 29 | The effect of lignosulonate and its functional group on the electrochemical reaction on Pb flat electrode N.Hirai, National Institute of Technology, Japan |
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| 30 | Combinational measurement of cyclic voltammetry and frequency modulation mode atomic force microscopy: The effect of lignosulfonate additive Y.Imamura, T.Akatsu, D.Katsube, A.Kogure, N.Hirai, M.Kimura, Nagaoka University of Technology, Japan |
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| 31 | Investigation of hydrogen evolution inhibitors for use in lead-acid batteries M.Donten, Amer-Sil, Luxembourg |
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| 32 | In situ EC-AFM observation of the negative lead electrode surface and influence of additives on the utilization process P.Vanysek, P.Bača, P.Cudek, J.Zimakova, Brno Technical University, Czech Republic |
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| 33 | Conductive compounds as positive active material enhancers M.García, J.Valenciano, F.Trinidad, Exide Technologies, Spain |
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| 34 | Paste additives for improved positive active mass utilization and cycle life of the lead-acid battery J.Kosacki, F.Dogan, B.Craft, R.Payne, F.Fleming, Missouri S&T, USA |
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| 35 | XRD study of the effect of additives on dynamic changes of electrode surface composition L.Chladil, P.Vanýsek, On.Čech, J.Smejkal, P.Bača, Brno Technical University, Czech Republic |
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| 36 | Effect of residual elements in lead-acid batteries A.F.Romero, J.Valenciano, H.Fricke, F.Trinidad, E.Fatás, P.Ocón, Exide Technologies, Spain |
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| 37 | Application of rice husks as green carbon material in lead-acid battery negative electrodes A.Aleksandrova, M.Matrakova, P.Nikolov, IEES-BAS, Bulgaria |
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| 38 | The influence of the additives in the active materials on the performance of the positive plate M.Matrakova, A.Aleksandrova, P.Nikolov, IEES-BAS, Bulgaria |
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| 39 | Physicochemical characterization of the effect of the additive BB on the active masses of lead-acid batteries D.Pavlov, V.Naidenov, Y.Milusheva, S.Vassilev, IEES-BAS, Bulgaria T.Shibahara, M.Tozuka, Hitachi Chemical Co., Ltd., Japan |
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| 40 | Influence of electric current parameters on resistance of inorganic water solutions R.H.Sharipov, U.A.Balgimbayeva, E.N.Suleimenov, Kazakh-British Technical University, Republic of Kazakhstan |
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| 41 | Influence of rare earth blends to reduce water consumption in lead-acid batteries S.Pedrosa, A.Assuncao, E.S.Goncales, A.Souza, ITEEM, Moura, Brazil |
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| 42 | Tailoring the electrochemically active PbO2 phases H.Gokdemir, M.A.Gulgun, C.H.Yılmaz, C.Acıksarı. M.Mazman, Mutlu Aku ve Malz. San. A.S., Turkey |
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| 43 | Electrochemical evaluation of various commercial expanders for lead-acid battery application A.Hosseini, Sarv Sanat Toos Co., Iran |
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| 44 | Lead-acid battery modified by ionic liquids produced in Autopart K.Kopczyński, A.Gabryelczyk, M.Baraniak, J.Pernak, E.Jankowska, H.Przybyło, W.Rzeszutek, P.Kedzior, G.Lota, Autopart, Poland |
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| LEAD-ACID BATTREY TECHNOLOGY | ||
| 45 | About the crystallization processes on the active masses of lead-acid batteries V.Naidenov, IEES-BAS, Bulgaria |
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| 46 | Structural changes in the active masses by application of external physical influences B.Shirov, IEES-BAS, Bulgaria |
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| 47 | State of charge and state of health determination of lead-acid batteries using double layer capacitance measurements S.Chalasani, A.Larese, R&D, East Penn Manufacturing Co., USA |
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| 48 | Controlling pore structure to increase positive active mass utilization and cycle life of the lead-acid battery J.Kosacki, F.Dogan, B.Craft, R.Payne, F.Fleming, Missouri S&T, USA |
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| 49 | Improved plate performance of automotive batteries using tetrabasic seeding material – impact of porosity and electrode structure on electrical performance and cycle life R.Bussar, H.Ramianpour, I.Klein, M.Kirchgessner, PENOX GmbH Germany |
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| 50 | Effect of curing temperature on performance of PAM using 4BS crystal H.Hagihara, A.Watanabe, T.Mangahara, J.Furukawa, Furukawa Battery Co., Ltd., Japan |
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| 51 | Research on the process of tubular positive plate formation for lead acid batteries Sh.Tang, X.Zhan,T.Wu, L.Chen, Zibo Torch Energy Co., LTD. China P.Nikolov, S.Ruevski, IEES-BAS, Bulgaria |
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| 52 | State-of-art in formation and filling process for VRLA batteries in GEL technology K.D.Merz, Abertax Technologies, Malta |
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| 53 | News and optimization on formation with acid recirculation technology Ch.Papmahl, Inbatec, Germany |
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| 54 | Lead acid batteries based on chemically prepared (basic) lead sulphate L.Lei, J.Yang, F.Yang, Southeast University, China |
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| 55 | Advancing Dynamic Charge Acceptance by using functionalized pasting paper with the negative electrode S.Kumar, J.Wertz, N.Clement, T.Grocela, A.Mayman, S.Cox, Hollingsworth & Vose, USA |
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| 56 | Red lead for lead acid batteries, effects of different product characteristics I.Klein, R.Bussar, M.Kirchgessner, PENOX GmbH, Germany |
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| 57 | High power thin plate technology developments R.Kurian, R.Payne, EnerSys, UK |
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| 58 | Challenges in the development of high-performance lead acid batteries G.Langer, E.Cattaneo, B.Riegel, Hoppecke Batteries, Germany |
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| 59 | Battery Gas Venting – an underestimated impact on battery water loss I.Koch, FRÖTEK-Kunststofftechnik GmbH, Germany |
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| 60 | Examination of the effects of surfactants on crystal growth and curing of the positive active material T.Wojcinski, E.Gao, M.Murphy, S.Luken, M.Ho, S.Barnes, M.Robotti, Hammond Group Inc., USA |
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| 61 | Bipolar designs for low temperature battery application M.Roma, Ed Shaffer, Advanced Battery Concepts Inc., USA |
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| 62 | Determining pickling reaction rate constants in bipolar VRLA batteries Sh.Bruno, R.Shick, Sh.Adkins, Ed Shaffer II, Advanced Battery Concepts Inc., USA |
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| 63 | Formation of corrosion layers in bipolar lead acid batteries and their effect on performance E.Hinojosa, C.Mui, Gridtential Energy, USA |
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| 64 | Modern formation equipment for lead acid batteries Y. Kulkarni, KraftPowercon, India |
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| 65 | The role of lug preheating, melt pool temperature and lug entrance delay on the cast-on-strap joining process A.Hosseini, Sarv Sanat Toos Co., Iran |
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| 66 | PC pulse current intelligent systems and technologies for electrochemical processes S.Gishin, Battery Center Europe Ltd., Bulgaria V.Dimitrov, Technical University – Sofia, Bulgaria |
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| 67 | Ultrasonic interrogation studies of AGM-VRLA cells V.Gau, N.Guillet, P.X.Thivel, A.Kirchev, CEA, France |
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| 68 | HeimBMS: VRLA battery state estimation and balancing in off-grid battery systems M.Franke, J.Kowal, Technical University Berlin, Germany |
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| 69 | High-temperature durability of enhanced flooded batteries in real-world conditions J.Wirth, E.Karden, D.U.Sauer, ISEA – RWTH Aachen University, Germany |
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| DYNAMIC CHARGE ACCEPTANCE | ||
| 70 | Chemically treated carbon materials for high dynamic charge acceptance and low water loss in lead-acid batteries B.Bozkaya, J.Settelein, G.Sextl, Fraunhofer Institute for Silicate Research ISC, Germany |
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| 71 | High DCA formulated blends for advanced lead batteries Y.H.Kao, Cabot Corp., USA |
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| 72 | Improving the charge acceptance of new generation start & stop batteries with carbon additives M.Ersöz, H.Gökdemir, A.Şimşek, S.Arslan, M.Mazman, Mutlu Akü ve Malz. San.,Turkey |
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| 73 | Additives for negative plate in Start/Stop batteries . Effect of carbon for increasing DCA M.Fernandez, L.Puckett, C.Barreneche, APG (Atomized Products Group), Spain |
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| 74 | A simple charge acceptance theory for battery plates. Industrial and pilot plant lead-acid battery plates C.V.D´Alkaine, H.R.de Freitas, Federal University of Sao Carlos, Brazil |
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| 75 | Charge acceptance issues when a VRLA/AGM cell is operated with IEC 61427-2 Clause 6.2 charge and discharge pulses of up to 120s duration simulating. Frequency regulation duty of power grids H.Giess, P.Ding, Narada Power Source Co, China |
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| 76 | Charge acceptance of the negative electrode of lead-acid batteries: Endeavor to understand degradation in PSoC operation in view of rate-limiting mechanisms E.Meissner, PhD Battery Specialist, Germany |
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| 77 | Improving Dynamic Charge Acceptance for automotive 12V batteries: Motivation - Problem Definition - Status - Questions E.Karden, FFA Ford Forschunggszentrum Aachen GmbH, Germany |
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| 78 | Charge acceptance vs Water loss: contradictory effects on high temperature environments Fr.Trinidad, Exide Technologies, Spain |
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| 79 | Charge acceptance improvement by optimizing negative plate formation A.Uctepe, T.Oztutan, H.Gokdemir, E.Erdem, Z.Kayali, M.Ersoz, M.Mazman, Multu Aku ve Malz.San., Turkey |
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| SEPARATORS, CORROSION, BATTERY RECYCLING | ||
| 80 | A novel separator for optimal battery performance to meet new market demands N.Madella, Microporous, GmbH, Austria |
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| 81 | Measurement of oxygen transport through separators in flooded batteries R.Waterhouse, K.Duchateau, E.Hostetler, ENTEK International LLC, USA |
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| 82 | Journey of the molecule: from the waste to paste. A hydro-metallurgical process for the recycling of spent battery paste A.Fox, Aurelius Environmental, UK |
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| 83 | Advanced electrochemical lead recovery from spent lead acid batteries with novel electrolyser designs X. Wu, Huazhong University of Science and Technology, China |
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| 84 | New innovative route for the desulphurization of lead paste G.Fusillo, F.Scura, G.La Sala, STC S.r.l. Lead Division, Italy |
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| 85 | Multilayer separator based on AGM and polymer membrane for sealed lead-acid batteries A.A.Izbasarova, M.M.Burashnikova, Saratov State University, Russia |
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| 86 | A Study on the PAM/grid corrosion layer during the life cycle of lead acid positive plates Ph.Sholtes, M.Ros, and Sh.Peng, Trojan Battery and C&D Technology, USA |
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| 87 | Novel lead-graphene composites with improved mechanical and corrosion properties L.Yolshina, Institute of High-Temperature Electrochemistry, Russia |
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| 88 | Lead-Carbon battery towards renewable energy storage: from mechanism, materials, to applications W. Zhang, J.Yin, H.N.Alshareef, King Abdullah University of Science and Technology (KAUST), Saudi Arabia H.B. Lin, Jilin University, China |
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| 89 | Is lead battery threatened by Li-ion? Yes & No S.Joshi, Greenvision Technologies PVT. Ltd., India |
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| 90 | Advanced Lithium Batteries K.Banov, B.Banov, IEES-BAS, Bulgaria |
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| BATTERY MODELING | ||
| 91 | Ionic diffusion modelling of lead-acid gel and AGM batteries with respect to state of charge M.G.Verde, T.Hasanali, Sh.Peng, Trojan Battery and C&D Technology, USA |
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| 92 | Mathematical modeling of changes in the electrochemical parameters of lead-acid cells under various conditions and operation modes A.Aleshkin, Y.Bubnov, V.Ruzhnikov, V.Yagnyatinsky, AC Buster Ltd., Russia |
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| 93 | Electrochemical impedance spectroscopy on test cells S.Matthies, Technical University Berlin, Germany |
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| 94 | Formalization and implementation of a global model: application to lead acid batteries F.Coupan, University of Guyane, France |
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| 95 | Numerical simulation of the ultra-battery during high rate partial state of charge V.Esfahanian, N.Aghamirzaie, A.Jafari, M.T.Dalakeh, University of Tehran, Iran |
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| 96 | Modeling and verification of lead-acid battery grid design T.Isler, M.Ersoz. M.Mazman, Mutlu Aku ve Malz. San. A.S., Turkey |
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| 97 | A critical review update of the now more-than 50 years old review by Simon, Burbank and Willihnganz. What have we learned? What directions should future research take? G.Mayer, Battery Technology Center Inc., USA |
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| 98 | A preliminary report on a novel electrochemistry that should overcome PCL 1, 2 and 3, allow rapid recharge, and have a long cycle life at any DOD/ any PSOC G.Mayer, Battery Technology Center Inc., USA |
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| 99 | Optimization of grid configuration by investigating its effect on positive plate of lead-acid batteries via numerical modeling A.Hosseini, Sarv Sanat Toos Co., Iran |
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| 100 | The influence of methanesulfonate ions on physico-chemical properties of lead dioxide coatings A.Velichenko, T.Luk’yanenko, O.Shmychkova, Ukrainian State University of Chemical Technology, Ukraine |
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| 101 | Sodium versus lithium ions in advanced energy storage systems K.Banov, B.Banov, IEES-BAS, Bulgaria |
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| 102 | Active electrode materials with improved electrochemical performances K.Banov, B.Banov, IEES-BAS, Bulgaria |
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