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V1.01
71
Water is resolved into hydrogen in the negative electrode (starts to evolve when approx.
90% fully charged) and oxygen in the positive electrode (starts to evolve when approx. 70% fully
charged) during charging. In the early years battery fail mostly because of dry out the evolved gas
cannot recombined again, so it required acid or water refill. The latest VRLA battery overcome this
disadvantage gas will be recombination and hydrogen generation controlled too
.
Principle of oxygen recombination
Generally speaking, negative plates are designed to have more active material. The oxygen which is
generated from the positive electrode will travel through the separators to the negative electrode
to oxidize the Pb sohygrogen generation is controlled. This recombination process allows VRLA
batteries to have minimal water loss over years of operation making them essentially maintenance
free. No refilling is necessary
.
The cathode plays a dual role in VRLA batteries
.
1.
The spongy lead of the plate reacts with oxygen generating from the anode and is
oxidized to lead oxide
.
The lead sulfate of the plate has to accept the electrons which are transferred
through the external circuit,react to spongy lead from lead sulfate
.
General specifications
It is recommended to use less than 4 strings in parallel connection.
Serial connections should be made first
.
Summary of Contents for LfeLi-48100TB
Page 10: ...V1 01 10...
Page 11: ...V1 01 11 PB UPS 2K24 PB UPS 3K24 PB UPS 5K48...
Page 12: ...V1 01 12...
Page 62: ...V1 01 62...
Page 63: ...V1 01 63 PB SC12 170...
Page 64: ...V1 01 64...
Page 81: ...V1 01 81 PB Li 12 100D...
Page 82: ...V1 01 82...
Page 100: ...V1 01 100...
Page 101: ...V1 01 101 LfeLi 48100TB...
Page 102: ...V1 01 102...
Page 105: ...V1 01 105 Product structure LFeLi frontpanel...
Page 137: ...V1 01 137 APPENDIX...
Page 138: ...V1 01 138...
Page 139: ...V1 01 139 COMPOSITION AND SETTINGS SYSTEMS PB UPS 2 2 24...
Page 141: ...V1 01 141 PB LSC 1 PB SC12 170 PB UPS 2K24...
Page 142: ...V1 01 142...
Page 143: ...V1 01 143 PB UPS 3 5 24...
Page 145: ...V1 01 145 PB LSC 1 dimensions in mm PB SC12 170 dimensions in mm...
Page 146: ...V1 01 146 PB UPS 3K24 dimensions in mm...
Page 147: ...V1 01 147 PB UPS 5 5 48...
Page 149: ...V1 01 149 PB LSC 1 dimensions in mm PB SC12 170 dimensions in mm...
Page 150: ...V1 01 150 PB UPS 5K48 dimensions in mm...
Page 151: ...V1 01 151 PB UPS 10 10 48...
Page 153: ...V1 01 153...
Page 154: ...V1 01 154 PB LSC 2 dimensions in mm B SC12 170 dimensions in mm...
Page 155: ...V1 01 155 PB UPS 5K48 dimensions in mm...
Page 156: ...V1 01 156 PB UPS 15 15 48...
Page 158: ...V1 01 158...
Page 159: ...V1 01 159 PB LSC 2 dimensions in mm B SC12 170 dimensions in mm...
Page 160: ...V1 01 160 PB UPS 5K48 dimensions in mm...
Page 161: ...V1 01 161 PB UPS 2 2 24 Li...
Page 163: ...V1 01 163 PB LSC 1 PB Li 12 100D...
Page 164: ...V1 01 164 PB UPS 2K24...
Page 165: ...V1 01 165 PB UPS 3 5 24 Li...
Page 167: ...V1 01 167 PB LSC 1 PB Li 12 100D...
Page 168: ...V1 01 168 PB UPS 2K24...
Page 169: ...V1 01 169 PB UPS 5 5 48 Li...
Page 171: ...V1 01 171 LfeLi48100T dimensions in mm PB LSC Li dimensions in mm...
Page 172: ...V1 01 172 PB UPS 5K48 dimensions in mm...
Page 173: ...V1 01 173 PB UPS 10 10 48 Li...
Page 175: ...V1 01 175 LfeLi48100T dimensions in mm PB LSC Li dimensions in mm...
Page 176: ...V1 01 176 PB UPS 5K48 dimensions in mm...
Page 177: ...V1 01 177 PB UPS 15 15 48 Li...
Page 179: ...V1 01 179 LfeLi48100T dimensions in mm PB LSC Li dimensions in mm...
Page 180: ...V1 01 180 PB UPS 5K48 dimensions in mm...
Page 183: ...V1 01 183 ANL MEGA...
Page 190: ...V1 01 190...
Page 191: ...V1 01 191...
Page 192: ...V1 01 192...