VRLA and NEW BATTERIES
Progress in overcoming the failure modes peculiar to VRLA batteries
A.Cooper, EALABC (EEIG), UK
P.T.Moseley, ILZRO, USA
New modified AGM separator and its influence on the performance of
VRLAB
D.Pavlov, V.Naidenov, S.Ruevski, M.Cherneva, CLEPS, Sofia, Bulgaria
V.Mircheva, Institute of Polymers, Sofia, Bulgaria
Design aspects of the VRLA battery positive electrode
R.J.Ball, R.Stevens, Department of Engineering and Applied Science, University
of Bath, UK
VRLA batteries electrochemical factors affecting life
M.Fernandez, P.G.Gracia, F.Trinidad, Tudor Research Laboratory, EXIDE Technologies,
Azuqueca de Henares, Guadalajara, Spain
Enhanced performance of VRLABs with a spirally-wound electrode design
J.Wang, S.Zhong, H.K.Liu, S.X.Dou, ISEM, University of Wollongong, Australia
Y.Zhu, C.Fu, LeadCelBattery Co., Shenyang, China
Experimental and theoretical studies of the scattering in floating conditions
of VRLA batteries in series
E.Rossinot, C.Lefrou, Laboratoire d’Electrochemie et Physico-chemie des
Materiaux et Interfaces, Saint Martin d’Heres, France
J.P.Cun, MGE UPS Systems, Saint Martin, France
Oxygen cycle in lead-acid batteries. Transfer way and recombination
rate in AJS cells
M.Perrin, H.Doering, F.Schulz, ZSW, Ulm, Germany
Y.Guo, Shandong University, Jinan, China
Life extension of cycling VRLABs with catalysts or auxiliary electrodes
I.Dyson, P.Griffin, P.Whiteley, CMP Batteries, UK
W.Jones, Philadelphia Scientific International Inc., Montgomeryville, USA
POSITIVE PLATE
SGTP – a new positive plate for lead-acid batteries
D.Pavlov, G.Papazov, B.Monahov, CLEPS, Sofia, Bulgaria
Tubular positive plate of the lead-acid battery. General analysis of
the discharge process
C.V.D’Alkaine, Group of Electrochemistry and Polymers, Chemistry Dept.,
Federal University of Sao Carlos, Sao Carlos, Brazil
R.P.Impinisi, Battery Laboratory, LACTEC, Curitiba, Brazil
A.Carubelli, Chemistry Dept., Federal University of Parana, Curitiba, Brazil
Dependence of the structure of the interface grid/PAM on the pH value
of the solution in the pores
B.Monahov, A.Kirchev, D.Pavlov, CLEPS, Sofia, Bulgaria
In-situ EC-AFM observation of antimony effect for lead dioxide electrode
M.Shiota, Y.Yamaguchi, Y.Nakayama, Yuasa Corporation, Osaka, Japan
N.Hirai, Sh.Hara, Department of Material Science and Processing, Osaka University,
Japan
Behaviour of lead dioxide in sulphuric media containing phosphoric acid
C.Francia, M.Maja, L.Solarino, P.Spinelli, Department of Material Science and
Chemical Engineering, Polytechnical University of Turin, Torino, Italy
Study of PCL mechanism. Influence of grid/PAM states on PCL
M.Shiomi, Y.Okada, Y.Tsuboi, S.Osumi, M.Tsubota, Japan Storage battery Co. Ltd,
Kyoto, Japan
LEAD ALLOYS
Corrosion and electrochemical behaviour of lead film electrode in sulfuric
acid solutions
I.Yolshina, Institute of High Temperature Electrochemistry, Ekateringburg, Russia
Electrochemical study in sulfuric acid of the hardening L12 phases of the PbCaSn alloys
G.Bourguignon, A.Maitre, E.Rocca, J.Steinmetz, Laboratoire de Chemie du Solide
Mineral, Vandoeuvre les Nancy, France
L.Torcheux, CEAC, Gennevilliers cedex, France
The effect of segregation of alloying elements on performance of battery
grids
R.D.Prengaman, RSR Technologies, Inc., USA
Influence of curing conditions on PbCaSn grid/paste interface and lead-acid
battery performance
D.Pavlov, M.Dimitrov, T.Rogachev, L.Bogdanova, CLEPS, Sofia, Bulgaria
Electrochemical behaviour of lead alloys in sulfuric and phosphoric
acid
I.Paleska, R.Pruszkowska-Drachal, J.Kotowski, A.Dziudzi, A.Czerwinski, Department
of Chemistry, Warsaw University, Poland
J.D.Milewski, M.Kopczyk, Central Laboratory of Batteries and Cells, Poznan,
Poland
Oxidation and reduction behaviour of Pb and Pb-alloys characterized
by In situ X-Ray grazing incidence diffraction
G.E.Nauer, Institute of Physical Chemistry, University of Vienna, Austria
In situ X-Ray characterization of the anodic behaviour of Pb-Ca alloys
in sulphate electrolytes
G.E.Nauer, Institute of Physical Chemistry, University of Vienna, Austria
B.Salfinger, R.Krendelsberger, Kplus Center of Competence in Applied Electrochemistry,
Neustadt, Austria
N.Maleschitz, Banner Batterien GmbH, Linz, Austria
J.O.Besenhard, Institute of Chemical Technology of Inorganic Materials, Graz
Technical University, Austria
H.Kronberger, G.Fafilek, Institute of Chemical Technology and Analytics, Vienna
Technical University, Austria
Investigations on the corrosion behavior of Pb-Ca alloys used as grid
materials for positive plates in lead-acid batteries
B.Salfinger, R.Krendelsberger, Kplus Center of Competence in Applied Electrochemistry,
Neustadt, Austria
N.Maleschitz, Banner Batterien GmbH, Linz, Austria
J.O.Besenhard, Institute of Chemical Technology of Inorganic Materials, Graz
Technical University, Austria
H.Kronberger, G.Fafilek, Institute of Chemical Technology and Analytics, Vienna
Technical University, Austria
G.E.Nauer, Institute of Physical Chemistry, University of Vienna, Austria
Electrochemical deposition of Pb and PbO2 on polymer composites
electrodes
A.Merzouki, L.Zerroual, N.Haddaoui, Department de Genie des Procedes, Faculte
de lngenieur, Universite Ferhat ABBAS de Setif, Algerie
NEGATIVE PLATE
Influence of temperature on expander stability and on the cycle life
of the negative plates
G.Papazov, D.Pavlov, B.Monahov, CLEPS, Sofia, Bulgaria
The influence of different negative expanders on the performance of
VRLA batteries
J.Valenciano, F.Trinidad, EXIDE Technologies – GLOBAL R&D Center,
Azuqueca de Henares, Spai
Influence of phenolic group content in lignin expanders on the performance
of negative lead-acid battery plates
M.Matrakova, T.Rogachev, D.Pavlov, CLEPS, Sofia, Bulgaria
B.Myrvold, Borregaard LignoTech, Norway
Influence of charge mode on the capacity and cycle life of lead-acid
battery negative plates
G.Petkova, D.Pavlov, CLEPS, Sofia, Bulgaria
Improved negative active material: Structural considerations
A.Ferreira, Hollingsworth&Vose Co., West Groton, USA
In-situ EC-AFM observation with atomic resolution on Pb(100) single
crystals in sulfuric acid solution
N.Hirai, K.Takeda, Sh.Hara, Department of Material Science and Processing, Osaka
University, Japan
M.Shiota, Y.Yamaguchi, Y.Nakayama, Yuasa Corporation, Osaka, Japan
Gas-diffusion approach to the kinetics of oxygen recombination in lead-acid
batteries
A.Kirchev, B.Monahov, D.Pavlov, CLEPS, Sofia, Bulgaria
Advanced Lithium-ion solid batteries with the cathode based on lithium
manganese oxide
Z.Takehara, Faculty of Engineering, Kansai University, Osaka, Japan
Silver-silver sulfate reference electrodes for lead-acid batteries
P.Ruetschi, Granddevent, Switzerland
LEAD-ACID BATTERY TECHNOLOGY
Beneficial effects of red lead for lead-acid batteries
J.Wang, S.Zhong, G.Walter, H.K.Liu, S.X.Dou, ISEM, University of Wollongong,
Australia
The role of lead hydroxide in the lead-acid battery electrodes
A.E.Saba, A.E.El-Sherief, S.E.Afifi, A.Y.Shenouda, Electrometallurgy Laboratory,
Central Metallurgical Research and Development Institute, Cairo, Egypt
F.E.Heikal, Department of Chemistry, Faculty of Science, Cairo University, Giza,
Egypt
Role of structural water on the mechanism of a and b PbO2 formation
in lead-acid battery positive plates
M.Boubatra, L.Zerroual, Laboratoire d’Energetique et d’Electrochemie
des solides, Universite de Setif, Algerie
Preparation and characterization of thin electrodes for lead-acid batteries
A.Caballero, M.Cruz, L.Hernan, J.Morales, L.Sanchez, Departamento de Quimica
Inorganica, Universidad de Cordoba, Cordoba, Spain
Process and products of grid making by electrodeposition
H.Warlimont, DSL Dresden, Material Innovation GmbH, Dresden, Germany
Effect of mixed additives on LAB fluid
A.Bhattacharya, I.N.Basumallick, Department of Chemistry, Visva-Bharati, Santiniketan,
India
Electroplated reticulated vitreous carbon current collectors for high
specific energy, deep-cycle lead-acid batteries: Opportunities and challenges
E.Gyenge, S.Splinter, J.Jung, BC Research Inc., Power Research and Development
Laboratory, Vancouver, Canada
A.Snaper, Power Technology Inc., Las Vegas, USA
B.Mahato, Battery Consultation Services, Huntington Beach, CA, USA
High speed wrapping and stacking of VRLA and SLI cells
A.Schwetz, BM-Battery Machines GmbH, Ebersdorf, Austria
Control of the drying process of the tubular battery plates
M.Mladenov, CLEPS, Sofia, Bulgaria
V.Genchev, Institute of Biomechanics, Sofia, Bulgaria
I.Hristakiev, Medical Technique Engineering, Sofia, Bulgaria
Synergistic effects of Novel Battery Manufacturing Processes for lead-acid
batteries
A.Rochliadi, R.De Marco, Department of Applied Chemistry, Curtin University
of Technology, Perth, Australia
BATTERY OPERATION and BATTERY TESTING
Restoration of lead-acid battery capacity
S.Pandya, K.V.International, Gandhinagar, India
Characterization of photovoltaic batteries using radio element detection
F. Mattera, D.Desmettre, J-L.Martin. Ph.Malbranche, GENEC-CEA, Cadarache, Saint
Paul lez Durance, France
Results and comparison of seven accelerated cycling test procedures
for the photovoltaic application
E.Potteau, D.Desmettre, F. Mattera, O.Bach, J-L.Martin., Ph.Malbranche, GENEC-CEA,
Cadarache, Saint Paul lez Durance, France
Sulfation as applied to lead-acid batteries: The myth and the reality
H.A.Catherino, AMSTA-TR-E/PWR 267, USA TACOM, Warren. MI, USA
F.F.Feres, Exide Technologies, Auburn Hills, MI, USA
Microstructure of PE-separators
H.Winkler, Daramic, Separatorenerzeugung GmbH, Feistritz, Austria
Refining of secondary lead and ecology
Z.Vaisgant, A.Morachevskiy, M.Habachev, BC Rigel, Elta Ltd. St.Petersburg, Russia
BATTERY MODELS, IMPEDANCE MEASUREMENTS
Simultaneous measurements of potential and high-frequency resistance
of a LAB element
F.Huet, R.P.Nogueira, UPR 15 du CNRS, Universite Pierre et Marie Curie, Paris,
France
L.Torcheux, P.Lailler, CEAC, Gennevilliers, France
Electrical network modeling of the lead-acid battery for the analysis
and design of vehicle electrical subsystems
A.Buzzi, A.Fiumara, M.Gosso, P.Guglielminotti, FIAT Research Center, Torino,
Italy
A.Canova, M.Repetto, Dept.of Electrical Engineering, Polytechnical University
of Turin, Italy
P.Spinelli, Dept.of Chemical Engineering and Material Science, Polytechnical
University of Turin, Italy
Impedance-based non-linear dynamic battery modeling for automotive
applications
S.Buller, M.Thele, E.Karden, R.W.De Doncker, Institute for Power Electronics
and Electrical Drives, Aachen University of Technology, Germany
Simulation of the impedance characteristics of recombinant lead-acid
batteries
F.Gobal, Department of Chemistry, Sharif University of Technology, Tehran, Iran
Mobile data integration for electrochemical battery testing with continuous
surveillance
K.Belov, Central Laboratory of Mechatronic and Instrumentation, Sofia, Bulgaria
M.Mladenov, CLEPS, Sofia, Bulgaria
Noise controlled self-adaptive Ir compensated potentiostatic system
P.Andreev, CLEPS, Sofia, Bulgaria
An efficient Ir and E/R compensated electronic source
P.Andreev, CLEPS, Sofia, Bulgari |
