Looking for a high-quality lithium leisure battery with a capacity of 100Ah or 110Ah? Our 120Ah lithium leisure battery is a perfect choice, with a higher capacity compared to our competitors, top-notch cell quality, Bluetooth built-in as standard, and an industry-leading built-in matched BMS. It's the ideal option for almost any application including motorhomes, caravans, conversions, marine and industrial use.
355mm long x 175mm wide x 190mm high
Perfect for those looking for the highest tier of lithium battery for use in camping, marine or renewable storage, our 120Ah lithium is our answer to the standard 110Ah lithium battery from others but packs a bigger punch with a larger capacity, higher quality cells, Bluetooth at no extra cost and an uprated BMS. This battery is still 190mm tall, so can fit under seats if required, plus can be mounted on its side if you need it 175mm in height.
This battery is also perfect for those who need a 12V power source in a condensed and lightweight package (not for engine starting, though).
TITAN LiFePO4 batteries are inherently safe both chemically and thermally, and do not use rare materials like Cobalt or Nickel. In return, we get a slightly lower cell voltage of 3.2V per cell (4x cells = 12.8V), and a lower energy capacity compared to NMC (Lithium nickel manganese cobalt - the cells used in EVs), however LiFePO4 are much more stable at a chemical level, and have much higher lifespans - our batteries can last between 2,500 and 10,000 cycles (depending on use) - NMC is typically 1,000 to 2,500 cycles.
The omission of Cobalt vastly reduces the chance to start thermal runaway. Many now consider LiFePO4 to be safer than lead-acid thanks to their stability and internal control. They can be used in any orientation (e.g. on its side), although on its base will give the best performance. They contain absolutely no acid, generate no gas emissions and are recyclable.
TITAN batteries can be cycled (1 discharge + 1 charge = 1 cycle) between 2,500 to 10,000 times. The amount of cycles corresponds to how deep the discharge is - this is referred to as DOD; Depth of Discharge). If you discharge 100% of the capacity every time you use the battery, it can do this 2,500 times before needing to be replaced. The less capacity used, the higher the cycle life.
In terms of measurable life: if you discharged this battery 100% every day of the year - 2,500 cycles ÷ 365 days = 6.8 years expected lifespan
To put this into perspective, the highest quality lead-acid gel battery (gel has the best cycle count of lead-acid) can do 350-400 cycles at 80% DOD.
To get the same capacity in lead-acid, you would need two massive, heavy 142Ah batteries (Exide ER650) in a parallel connection to make 284Ah. Just one TITAN 120Ah can save a huge amount of space, weight, extra wiring and has the added benefit of no gassing, so can be placed anywhere.
To compare accurately, we only use Wh (Watt Hour) capacity ratings - Ah (Amp Hour) ratings unfortunately do not take battery chemistry differences into account: TITAN lithium batteries use 100% of their capacity (~90% with Gel, ~75% AGM & ~60% traditional flooded lead-acid). This coupled with lithium's inherent energy density, means our batteries have over double the useable capacity compared to lead-acid batteries.
Our most asked question - can lithium replace your current lead-acid battery? TITAN lithium batteries are designed as a direct replacement of lead-acid batteries with no need for new equipment. For more detailed information, please check out our FAQs
Our lithium batteries are for running equipment only (i.e. deep cycle use) - they are not designed for engine starting.
All TITAN lithium batteries use the highest quality lithium cells. In doing so, we can achieve better performance, higher BMS thresholds and a better overall lifespan compared to others.
We use prismatic lithium cells (they look like a long rectangle) rather than cylindrical cells. Prismatic cells are more expensive and harder to make than cylindrical, but the benefit is a higher quality, higher capacity and potent battery. As all battery cases are squares, our cells fill out all available space within which allows us to boast higher capacities over other brands.
Cylindrical cells will waste a fair amount of internal space as circles put together will always have a gap, and are far harder to repair as they use a lot of spot welding in their design.
All TITAN batteries have their own BMS built-in. A Battery Management System (BMS) is a circuit board that is mounted on top of the internal cells inside the battery which is connected in between the cell terminals, and external battery terminals. The BMS controls and monitors everything with split second accuracy to ensure the battery cannot be damaged through normal day to day use. TITAN BMS currently has a market leading 11 protections built-in e.g. over discharge protection, over voltage, under voltage, temperature protection and short circuit protection to name a few.
All protections are temporary and are designed to self-reset or reset when the battery is put on a charger.
TITAN lithium's BMS has one of the highest rated BMS allowances on the market thanks to the use of the best quality materials and internal workmanship.
The same capacity in a single lead-acid battery weighs a massive 50Kg (Exide AGM EP1500), and is over twice the physical size. A 37Kg weight saving can mean a huge difference when traveling abroad, as well as offering better MPG on vehicles.
Perfect as a drop-in replacement for lead-acid batteries, our high-performance copper terminals ensure the best electrical performance while inherently providing corrosion-free contact.
Need bolt terminals instead? No problem - we can provide high-quality, hot stamped brass M8 nut & bolt adapters free of charge (just leave us a note at checkout).
Despite its high initial cost, TITAN lithium is cheaper than its lead-acid counter parts over its lifespan. Our design life is 10 years - rounded up this battery costs £800 or £80 a year. The closest capacity equivalent in lead-acid is the Exide AGM EP1500 with a design life of 4 years - currently around £385 or £96 a year (replacing the battery at the 4 year mark). This equates to over £160 in savings, plus all the benefits of a lighter, smaller and more efficient battery.
While the design life of TITAN Lithium is 10 years, we expect the average user to reach 15-20 years, making it an even better investment. The realistic average life of Lead-acid is 3-5 years.
Thanks to our 99% efficiency rating, TITAN batteries utilises incoming charge energy with little waste; making them a perfect partner for solar chargers. Our batteries can accept extremely high charging amps which means they can be charged extremely quickly - from 0% to 95% in less than 2 hours (when charged over 100Amps).
This efficient charging means TITAN batteries are also perfect for home solar storage (although we'd recommend looking at our higher voltage batteries for better BMS efficiency).
At TITAN, we are so confident in our build and component quality, we have upgraded all of our batteries that have grade A cells to our full warranty that lasts the lifetime of the battery. Our parent company celebrated its 75th anniversary of continuous business this year, and we plan to stick around for the foreseeable so you can rest easy that we will be here for any issues that may arise; be it tomorrow, or in 10 or even 30 years.
Important to note: like anything in life, the more you use something, the more it wears out - batteries have always been the same, and their capacity will degrade over time. This reduction is normal and to be expected; the harder you use the battery (i.e. you discharge it fully and charge it fully often), the faster its fully charged capacity will decrease. Lithium has an incredible resiliency to capacity reduction though, and we expect a capacity loss of about 5-10% every decade with normal use and charging within specifications e.g. a brand new 150Ah would have a fully charged capacity of 165Ah, a 10 year old 150Ah would have ~150Ah and a 20 year old 150Ah would have ~135Ah when fully charged.
Battery wear or capacity loss are not valid warranty claims. Once a battery reaches a fully charged point and it does not last very long or last as long as you need it to, you will need to replace the unit.
Our warranty covers all components against premature failures caused by manufacturing faults. For more information on our warranty terms, please click here
If anything does fail prematurely, we aim to repair or replace individual problem components rather than replace the whole battery. Doing this also allows us to reduce our carbon impact and reduce waste. As we are battery specialists (we used to make batteries in the 1950s), we are adept at any and all repairs should they arise - we do ask customers to leave the repairs to us; cells and BMS's are proprietary in design.
12.8V
80Ah (20hr)
1,024Wh
<10mΩ
99%
<3% a month (when disconnected from loads)
242mm long
175mm wide
190mm high
8.9Kg
High performance copper automotive post (round post)
ABS Plastic
IP65
LiFePO4
Prismatic
Grade A Automotive Cells (best quality possible)
4 in series (48V)
6 in parallel (480Ah)
100A
150A
100A
11.6V
10.0V
1200A @ <500µs
Between 10A to 50A
13.8V to 14.4V
14.8V
-20°C to 60°C
0°C to 60°C - for BMS options without a heater
-20°C to 60°C - for BMS option with a heater
PASSED
The battery is heated for a period of time necessary to reach a homogeneous stabilized temperature of 57 ±4 °C, measured on the external case. The battery at 57 ±4 °C shall be subjected to one short circuit condition with a total external resistance of less than 0.1 ohm.
This short circuit condition is continued for at least one hour after the cell or battery external case temperature has returned to 57 ±4 °C, or has decreased by half of the maximum temperature increase observed during the test and remains below that value.
The short circuit and cooling down phases shall be conducted at least at ambient temperature. The battery will pass this test if the external temperature does not exceed 170°C and there is no disassembly, no rupture and no fire within six hours of this test.
PASSED
The battery is charged at twice the specified recommended maximum continuous charge current and voltage. The duration of the test is 24 hours. When the specified recommended charge voltage is not more than 18V, the minimum voltage of the test shall be the lesser of two times the maximum charge voltage of the or 22V.
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
Each internal cell shall be forced discharged at ambient temperature by connecting it in series with a 12V D.C. power supply at an initial current equal to the maximum discharge current. The specified discharge current is to be obtained by connecting a resistive load of the appropriate size and rating in series with the test cell, each cell shall be forced discharged for a time interval (in hours) equal to its rated capacity divided by the initial test current (in ampere).
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
The battery is stored at a pressure of 11.6kPa or less for at least six hour at ambient temperature (20±5°C).
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is stored for at least six hours at a test temperature equal to 72± 2°C, followed by storage for at least six hours at a test temperature equal to -40±2°C. The maximum time interval between test temperature extremes in 30 minutes. This procedure is to be repeated until 10 total cycles are complete, after which all test cells and batteries are to be stored for 24 hours at ambient temperature (20±5°C). For batteries, the duration of exposure to the test temperature extremes should be at least 12 hours.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is firmly secured to the platform of a vibration machine without distorting the cells in such a manner as to faithfully transmit the vibration. The vibration is a sinusoidal wave form with a logarithmic sweep between 7Hz and 200Hz and back to 7Hz traversed in 15 minutes, this cycle is repeated 12 times for a total of 3 hours for each of three mutually perpendicular mounting position of the battery. One of the directions of vibration must be perpendicular to the terminal face.
The logarithmic frequency sweep shall differ for cells and batteries with a gross mass of not more than 12kg (cells and small batteries), and for batteries with a gross mass of more than 12kg (large batteries).
For cells and small batteries: from 7Hz a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 8gn occurs (approximately 50Hz). A peak acceleration of 8gn is then maintained until the frequency is increased to 200Hz.
For large batteries: from 7Hz to a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 2gn occurs (approximately 25Hz). A peak acceleration of 2gn is then maintained until the frequency is increased to 200Hz.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is secured to a testing machine by means of a rigid mount which will support all mounting surfaces of each test battery. The battery is subjected to a halfsine shock of peak acceleration of 150gn and pulse duration of 6 milliseconds. Alternatively, large cells may besubjected to a half-sine shock of peak acceleration of 50gn and pulse duration of 11 milliseconds. Each battery shall be subjected to a half-sine shock of peak acceleration depending on the mass of the battery. The pulse duration shall be 6 milliseconds for small batteries and 11 milliseconds for large batteries.
Each cell or battery shall be subjected to three shocks in the positive direction and to three shocks in the negative direction in each of three mutually perpendicular mounting positions of the cell or battery for a total of 18 shocks.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
UN38.3
CE
RoHS
UKCA
EMC
12.8V
100Ah (20hr)
1,280Wh
<10mΩ
99%
<3% a month (when disconnected from loads)
280mm long
175mm wide
190mm high
10.9Kg
High performance copper automotive post (round post)
ABS Plastic
IP65
LiFePO4
Prismatic
Grade A Automotive Cells (best quality possible)
4 in series (48V)
6 in parallel (600Ah)
100A
150A
100A
11.6V
10.0V
1200A @ <500µs
Between 10A to 50A
13.8V to 14.4V
14.8V
-20°C to 60°C
0°C to 60°C - for BMS options without a heater
-20°C to 60°C - for BMS option with a heater
PASSED
The battery is heated for a period of time necessary to reach a homogeneous stabilized temperature of 57 ±4 °C, measured on the external case. The battery at 57 ±4 °C shall be subjected to one short circuit condition with a total external resistance of less than 0.1 ohm.
This short circuit condition is continued for at least one hour after the cell or battery external case temperature has returned to 57 ±4 °C, or has decreased by half of the maximum temperature increase observed during the test and remains below that value.
The short circuit and cooling down phases shall be conducted at least at ambient temperature. The battery will pass this test if the external temperature does not exceed 170°C and there is no disassembly, no rupture and no fire within six hours of this test.
PASSED
The battery is charged at twice the specified recommended maximum continuous charge current and voltage. The duration of the test is 24 hours. When the specified recommended charge voltage is not more than 18V, the minimum voltage of the test shall be the lesser of two times the maximum charge voltage of the or 22V.
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
Each internal cell shall be forced discharged at ambient temperature by connecting it in series with a 12V D.C. power supply at an initial current equal to the maximum discharge current. The specified discharge current is to be obtained by connecting a resistive load of the appropriate size and rating in series with the test cell, each cell shall be forced discharged for a time interval (in hours) equal to its rated capacity divided by the initial test current (in ampere).
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
The battery is stored at a pressure of 11.6kPa or less for at least six hour at ambient temperature (20±5°C).
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is stored for at least six hours at a test temperature equal to 72± 2°C, followed by storage for at least six hours at a test temperature equal to -40±2°C. The maximum time interval between test temperature extremes in 30 minutes. This procedure is to be repeated until 10 total cycles are complete, after which all test cells and batteries are to be stored for 24 hours at ambient temperature (20±5°C). For batteries, the duration of exposure to the test temperature extremes should be at least 12 hours.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is firmly secured to the platform of a vibration machine without distorting the cells in such a manner as to faithfully transmit the vibration. The vibration is a sinusoidal wave form with a logarithmic sweep between 7Hz and 200Hz and back to 7Hz traversed in 15 minutes, this cycle is repeated 12 times for a total of 3 hours for each of three mutually perpendicular mounting position of the battery. One of the directions of vibration must be perpendicular to the terminal face.
The logarithmic frequency sweep shall differ for cells and batteries with a gross mass of not more than 12kg (cells and small batteries), and for batteries with a gross mass of more than 12kg (large batteries).
For cells and small batteries: from 7Hz a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 8gn occurs (approximately 50Hz). A peak acceleration of 8gn is then maintained until the frequency is increased to 200Hz.
For large batteries: from 7Hz to a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 2gn occurs (approximately 25Hz). A peak acceleration of 2gn is then maintained until the frequency is increased to 200Hz.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is secured to a testing machine by means of a rigid mount which will support all mounting surfaces of each test battery. The battery is subjected to a halfsine shock of peak acceleration of 150gn and pulse duration of 6 milliseconds. Alternatively, large cells may besubjected to a half-sine shock of peak acceleration of 50gn and pulse duration of 11 milliseconds. Each battery shall be subjected to a half-sine shock of peak acceleration depending on the mass of the battery. The pulse duration shall be 6 milliseconds for small batteries and 11 milliseconds for large batteries.
Each cell or battery shall be subjected to three shocks in the positive direction and to three shocks in the negative direction in each of three mutually perpendicular mounting positions of the cell or battery for a total of 18 shocks.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
UN38.3
CE
RoHS
UKCA
EMC
12.8V
120Ah (20hr)
1,536Wh
<10mΩ
99%
<3% a month (when disconnected from loads)
355mm long
175mm wide
190mm high
13Kg
High performance copper automotive post (round post)
ABS Plastic
IP65
LiFePO4
Prismatic
Grade A Automotive Cells (best quality possible)
4 in series (48V)
6 in parallel (720Ah)
150A
260A
150A
11.6V
10.0V
1200A @ <500µs
Between 10A to 50A
13.8V to 14.4V
14.8V
-20°C to 60°C
0°C to 60°C - for BMS options without a heater
-20°C to 60°C - for BMS option with a heater
PASSED
The battery is heated for a period of time necessary to reach a homogeneous stabilized temperature of 57 ±4 °C, measured on the external case. The battery at 57 ±4 °C shall be subjected to one short circuit condition with a total external resistance of less than 0.1 ohm.
This short circuit condition is continued for at least one hour after the cell or battery external case temperature has returned to 57 ±4 °C, or has decreased by half of the maximum temperature increase observed during the test and remains below that value.
The short circuit and cooling down phases shall be conducted at least at ambient temperature. The battery will pass this test if the external temperature does not exceed 170°C and there is no disassembly, no rupture and no fire within six hours of this test.
PASSED
The battery is charged at twice the specified recommended maximum continuous charge current and voltage. The duration of the test is 24 hours. When the specified recommended charge voltage is not more than 18V, the minimum voltage of the test shall be the lesser of two times the maximum charge voltage of the or 22V.
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
Each internal cell shall be forced discharged at ambient temperature by connecting it in series with a 12V D.C. power supply at an initial current equal to the maximum discharge current. The specified discharge current is to be obtained by connecting a resistive load of the appropriate size and rating in series with the test cell, each cell shall be forced discharged for a time interval (in hours) equal to its rated capacity divided by the initial test current (in ampere).
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
The battery is stored at a pressure of 11.6kPa or less for at least six hour at ambient temperature (20±5°C).
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is stored for at least six hours at a test temperature equal to 72± 2°C, followed by storage for at least six hours at a test temperature equal to -40±2°C. The maximum time interval between test temperature extremes in 30 minutes. This procedure is to be repeated until 10 total cycles are complete, after which all test cells and batteries are to be stored for 24 hours at ambient temperature (20±5°C). For batteries, the duration of exposure to the test temperature extremes should be at least 12 hours.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is firmly secured to the platform of a vibration machine without distorting the cells in such a manner as to faithfully transmit the vibration. The vibration is a sinusoidal wave form with a logarithmic sweep between 7Hz and 200Hz and back to 7Hz traversed in 15 minutes, this cycle is repeated 12 times for a total of 3 hours for each of three mutually perpendicular mounting position of the battery. One of the directions of vibration must be perpendicular to the terminal face.
The logarithmic frequency sweep shall differ for cells and batteries with a gross mass of not more than 12kg (cells and small batteries), and for batteries with a gross mass of more than 12kg (large batteries).
For cells and small batteries: from 7Hz a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 8gn occurs (approximately 50Hz). A peak acceleration of 8gn is then maintained until the frequency is increased to 200Hz.
For large batteries: from 7Hz to a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 2gn occurs (approximately 25Hz). A peak acceleration of 2gn is then maintained until the frequency is increased to 200Hz.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is secured to a testing machine by means of a rigid mount which will support all mounting surfaces of each test battery. The battery is subjected to a halfsine shock of peak acceleration of 150gn and pulse duration of 6 milliseconds. Alternatively, large cells may besubjected to a half-sine shock of peak acceleration of 50gn and pulse duration of 11 milliseconds. Each battery shall be subjected to a half-sine shock of peak acceleration depending on the mass of the battery. The pulse duration shall be 6 milliseconds for small batteries and 11 milliseconds for large batteries.
Each cell or battery shall be subjected to three shocks in the positive direction and to three shocks in the negative direction in each of three mutually perpendicular mounting positions of the cell or battery for a total of 18 shocks.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
UN38.3
CE
RoHS
UKCA
EMC
12.8V
150Ah (20hr)
1,920Wh
<10mΩ
99%
<3% a month (when disconnected from loads)
355mm long
175mm wide
190mm high
16Kg
High performance copper automotive post (round post)
ABS Plastic
IP65
LiFePO4
Prismatic
Grade A Automotive Cells (best quality possible)
4 in series (48V)
6 in parallel (900Ah)
New! Upgraded to 200A
(from 150A)
260A for up to 10 seconds
320A for 1 second
New! Upgraded to 200A
(from 150A)
11.6V
10.0V
1200A @ <500µs
Between 10A to 50A
13.8V to 14.4V
14.8V
-20°C to 60°C
0°C to 60°C - for BMS options without a heater
-20°C to 60°C - for BMS option with a heater
PASSED
The battery is heated for a period of time necessary to reach a homogeneous stabilized temperature of 57 ±4 °C, measured on the external case. The battery at 57 ±4 °C shall be subjected to one short circuit condition with a total external resistance of less than 0.1 ohm.
This short circuit condition is continued for at least one hour after the cell or battery external case temperature has returned to 57 ±4 °C, or has decreased by half of the maximum temperature increase observed during the test and remains below that value.
The short circuit and cooling down phases shall be conducted at least at ambient temperature. The battery will pass this test if the external temperature does not exceed 170°C and there is no disassembly, no rupture and no fire within six hours of this test.
PASSED
The battery is charged at twice the specified recommended maximum continuous charge current and voltage. The duration of the test is 24 hours. When the specified recommended charge voltage is not more than 18V, the minimum voltage of the test shall be the lesser of two times the maximum charge voltage of the or 22V.
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
Each internal cell shall be forced discharged at ambient temperature by connecting it in series with a 12V D.C. power supply at an initial current equal to the maximum discharge current. The specified discharge current is to be obtained by connecting a resistive load of the appropriate size and rating in series with the test cell, each cell shall be forced discharged for a time interval (in hours) equal to its rated capacity divided by the initial test current (in ampere).
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
The battery is stored at a pressure of 11.6kPa or less for at least six hour at ambient temperature (20±5°C).
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is stored for at least six hours at a test temperature equal to 72± 2°C, followed by storage for at least six hours at a test temperature equal to -40±2°C. The maximum time interval between test temperature extremes in 30 minutes. This procedure is to be repeated until 10 total cycles are complete, after which all test cells and batteries are to be stored for 24 hours at ambient temperature (20±5°C). For batteries, the duration of exposure to the test temperature extremes should be at least 12 hours.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is firmly secured to the platform of a vibration machine without distorting the cells in such a manner as to faithfully transmit the vibration. The vibration is a sinusoidal wave form with a logarithmic sweep between 7Hz and 200Hz and back to 7Hz traversed in 15 minutes, this cycle is repeated 12 times for a total of 3 hours for each of three mutually perpendicular mounting position of the battery. One of the directions of vibration must be perpendicular to the terminal face.
The logarithmic frequency sweep shall differ for cells and batteries with a gross mass of not more than 12kg (cells and small batteries), and for batteries with a gross mass of more than 12kg (large batteries).
For cells and small batteries: from 7Hz a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 8gn occurs (approximately 50Hz). A peak acceleration of 8gn is then maintained until the frequency is increased to 200Hz.
For large batteries: from 7Hz to a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 2gn occurs (approximately 25Hz). A peak acceleration of 2gn is then maintained until the frequency is increased to 200Hz.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is secured to a testing machine by means of a rigid mount which will support all mounting surfaces of each test battery. The battery is subjected to a halfsine shock of peak acceleration of 150gn and pulse duration of 6 milliseconds. Alternatively, large cells may besubjected to a half-sine shock of peak acceleration of 50gn and pulse duration of 11 milliseconds. Each battery shall be subjected to a half-sine shock of peak acceleration depending on the mass of the battery. The pulse duration shall be 6 milliseconds for small batteries and 11 milliseconds for large batteries.
Each cell or battery shall be subjected to three shocks in the positive direction and to three shocks in the negative direction in each of three mutually perpendicular mounting positions of the cell or battery for a total of 18 shocks.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
UN38.3
CE
RoHS
UKCA
EMC
12.8V
200Ah (20hr)
2,560Wh
<10mΩ
99%
<3% a month (when disconnected from loads)
345mm long
190mm wide
245mm high
19.9Kg
High performance copper M8 threaded inserts (bolt terminals)
ABS Plastic
IP65
LiFePO4
Prismatic
Grade A Automotive Cells (best quality possible)
4 in series (48V)
6 in parallel (1,200Ah)
200A
260A
200A
11.6V
10.0V
1200A @ <500µs
Between 10A to 50A
13.8V to 14.4V
14.8V
-20°C to 60°C
0°C to 60°C - for BMS options without a heater
-20°C to 60°C - for BMS option with a heater
PASSED
The battery is heated for a period of time necessary to reach a homogeneous stabilized temperature of 57 ±4 °C, measured on the external case. The battery at 57 ±4 °C shall be subjected to one short circuit condition with a total external resistance of less than 0.1 ohm.
This short circuit condition is continued for at least one hour after the cell or battery external case temperature has returned to 57 ±4 °C, or has decreased by half of the maximum temperature increase observed during the test and remains below that value.
The short circuit and cooling down phases shall be conducted at least at ambient temperature. The battery will pass this test if the external temperature does not exceed 170°C and there is no disassembly, no rupture and no fire within six hours of this test.
PASSED
The battery is charged at twice the specified recommended maximum continuous charge current and voltage. The duration of the test is 24 hours. When the specified recommended charge voltage is not more than 18V, the minimum voltage of the test shall be the lesser of two times the maximum charge voltage of the or 22V.
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
Each internal cell shall be forced discharged at ambient temperature by connecting it in series with a 12V D.C. power supply at an initial current equal to the maximum discharge current. The specified discharge current is to be obtained by connecting a resistive load of the appropriate size and rating in series with the test cell, each cell shall be forced discharged for a time interval (in hours) equal to its rated capacity divided by the initial test current (in ampere).
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
The battery is stored at a pressure of 11.6kPa or less for at least six hour at ambient temperature (20±5°C).
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is stored for at least six hours at a test temperature equal to 72± 2°C, followed by storage for at least six hours at a test temperature equal to -40±2°C. The maximum time interval between test temperature extremes in 30 minutes. This procedure is to be repeated until 10 total cycles are complete, after which all test cells and batteries are to be stored for 24 hours at ambient temperature (20±5°C). For batteries, the duration of exposure to the test temperature extremes should be at least 12 hours.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is firmly secured to the platform of a vibration machine without distorting the cells in such a manner as to faithfully transmit the vibration. The vibration is a sinusoidal wave form with a logarithmic sweep between 7Hz and 200Hz and back to 7Hz traversed in 15 minutes, this cycle is repeated 12 times for a total of 3 hours for each of three mutually perpendicular mounting position of the battery. One of the directions of vibration must be perpendicular to the terminal face.
The logarithmic frequency sweep shall differ for cells and batteries with a gross mass of not more than 12kg (cells and small batteries), and for batteries with a gross mass of more than 12kg (large batteries).
For cells and small batteries: from 7Hz a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 8gn occurs (approximately 50Hz). A peak acceleration of 8gn is then maintained until the frequency is increased to 200Hz.
For large batteries: from 7Hz to a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 2gn occurs (approximately 25Hz). A peak acceleration of 2gn is then maintained until the frequency is increased to 200Hz.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is secured to a testing machine by means of a rigid mount which will support all mounting surfaces of each test battery. The battery is subjected to a halfsine shock of peak acceleration of 150gn and pulse duration of 6 milliseconds. Alternatively, large cells may besubjected to a half-sine shock of peak acceleration of 50gn and pulse duration of 11 milliseconds. Each battery shall be subjected to a half-sine shock of peak acceleration depending on the mass of the battery. The pulse duration shall be 6 milliseconds for small batteries and 11 milliseconds for large batteries.
Each cell or battery shall be subjected to three shocks in the positive direction and to three shocks in the negative direction in each of three mutually perpendicular mounting positions of the cell or battery for a total of 18 shocks.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
UN38.3
CE
RoHS
UKCA
EMC
12.8V
300Ah (20hr)
3,840Wh
<10mΩ
99%
<3% a month (when disconnected from loads)
521mm long
238mm wide
218mm high
28.8Kg
High performance copper M8 threaded inserts (bolt terminals)
ABS Plastic
IP65
LiFePO4
Prismatic
Grade A Automotive Cells (best quality possible)
4 in series (48V)
6 in parallel (1,800Ah)
200A
260A
200A
11.6V
10.0V
1200A @ <500µs
Between 10A to 50A
13.8V to 14.4V
14.8V
-20°C to 60°C
0°C to 60°C - for BMS options without a heater
-20°C to 60°C - for BMS option with a heater
PASSED
The battery is heated for a period of time necessary to reach a homogeneous stabilized temperature of 57 ±4 °C, measured on the external case. The battery at 57 ±4 °C shall be subjected to one short circuit condition with a total external resistance of less than 0.1 ohm.
This short circuit condition is continued for at least one hour after the cell or battery external case temperature has returned to 57 ±4 °C, or has decreased by half of the maximum temperature increase observed during the test and remains below that value.
The short circuit and cooling down phases shall be conducted at least at ambient temperature. The battery will pass this test if the external temperature does not exceed 170°C and there is no disassembly, no rupture and no fire within six hours of this test.
PASSED
The battery is charged at twice the specified recommended maximum continuous charge current and voltage. The duration of the test is 24 hours. When the specified recommended charge voltage is not more than 18V, the minimum voltage of the test shall be the lesser of two times the maximum charge voltage of the or 22V.
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
Each internal cell shall be forced discharged at ambient temperature by connecting it in series with a 12V D.C. power supply at an initial current equal to the maximum discharge current. The specified discharge current is to be obtained by connecting a resistive load of the appropriate size and rating in series with the test cell, each cell shall be forced discharged for a time interval (in hours) equal to its rated capacity divided by the initial test current (in ampere).
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
The battery is stored at a pressure of 11.6kPa or less for at least six hour at ambient temperature (20±5°C).
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is stored for at least six hours at a test temperature equal to 72± 2°C, followed by storage for at least six hours at a test temperature equal to -40±2°C. The maximum time interval between test temperature extremes in 30 minutes. This procedure is to be repeated until 10 total cycles are complete, after which all test cells and batteries are to be stored for 24 hours at ambient temperature (20±5°C). For batteries, the duration of exposure to the test temperature extremes should be at least 12 hours.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is firmly secured to the platform of a vibration machine without distorting the cells in such a manner as to faithfully transmit the vibration. The vibration is a sinusoidal wave form with a logarithmic sweep between 7Hz and 200Hz and back to 7Hz traversed in 15 minutes, this cycle is repeated 12 times for a total of 3 hours for each of three mutually perpendicular mounting position of the battery. One of the directions of vibration must be perpendicular to the terminal face.
The logarithmic frequency sweep shall differ for cells and batteries with a gross mass of not more than 12kg (cells and small batteries), and for batteries with a gross mass of more than 12kg (large batteries).
For cells and small batteries: from 7Hz a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 8gn occurs (approximately 50Hz). A peak acceleration of 8gn is then maintained until the frequency is increased to 200Hz.
For large batteries: from 7Hz to a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 2gn occurs (approximately 25Hz). A peak acceleration of 2gn is then maintained until the frequency is increased to 200Hz.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is secured to a testing machine by means of a rigid mount which will support all mounting surfaces of each test battery. The battery is subjected to a halfsine shock of peak acceleration of 150gn and pulse duration of 6 milliseconds. Alternatively, large cells may besubjected to a half-sine shock of peak acceleration of 50gn and pulse duration of 11 milliseconds. Each battery shall be subjected to a half-sine shock of peak acceleration depending on the mass of the battery. The pulse duration shall be 6 milliseconds for small batteries and 11 milliseconds for large batteries.
Each cell or battery shall be subjected to three shocks in the positive direction and to three shocks in the negative direction in each of three mutually perpendicular mounting positions of the cell or battery for a total of 18 shocks.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
UN38.3
CE
RoHS
UKCA
EMC
12.8V
460Ah (20hr)
5,888Wh
<10mΩ
99%
<3% a month (when disconnected from loads)
521mm long
238mm wide
218mm high
40Kg
High performance copper M8 threaded inserts (bolt terminals)
ABS Plastic
IP65
LiFePO4
Prismatic
Grade A Automotive Cells (best quality possible)
4 in series (48V)
6 in parallel (2,760Ah)
200A
260A
200A
11.6V
10.0V
1200A @ <500µs
Between 20A to 60A
13.8V to 14.4V
14.8V
-20°C to 60°C
0°C to 60°C - for BMS options without a heater
-20°C to 60°C - for BMS option with a heater
PASSED
The battery is heated for a period of time necessary to reach a homogeneous stabilized temperature of 57 ±4 °C, measured on the external case. The battery at 57 ±4 °C shall be subjected to one short circuit condition with a total external resistance of less than 0.1 ohm.
This short circuit condition is continued for at least one hour after the cell or battery external case temperature has returned to 57 ±4 °C, or has decreased by half of the maximum temperature increase observed during the test and remains below that value.
The short circuit and cooling down phases shall be conducted at least at ambient temperature. The battery will pass this test if the external temperature does not exceed 170°C and there is no disassembly, no rupture and no fire within six hours of this test.
PASSED
The battery is charged at twice the specified recommended maximum continuous charge current and voltage. The duration of the test is 24 hours. When the specified recommended charge voltage is not more than 18V, the minimum voltage of the test shall be the lesser of two times the maximum charge voltage of the or 22V.
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
Each internal cell shall be forced discharged at ambient temperature by connecting it in series with a 12V D.C. power supply at an initial current equal to the maximum discharge current. The specified discharge current is to be obtained by connecting a resistive load of the appropriate size and rating in series with the test cell, each cell shall be forced discharged for a time interval (in hours) equal to its rated capacity divided by the initial test current (in ampere).
In order to pass, the test requires no fire or explosion within seven days of the test.
PASSED
The battery is stored at a pressure of 11.6kPa or less for at least six hour at ambient temperature (20±5°C).
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is stored for at least six hours at a test temperature equal to 72± 2°C, followed by storage for at least six hours at a test temperature equal to -40±2°C. The maximum time interval between test temperature extremes in 30 minutes. This procedure is to be repeated until 10 total cycles are complete, after which all test cells and batteries are to be stored for 24 hours at ambient temperature (20±5°C). For batteries, the duration of exposure to the test temperature extremes should be at least 12 hours.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is firmly secured to the platform of a vibration machine without distorting the cells in such a manner as to faithfully transmit the vibration. The vibration is a sinusoidal wave form with a logarithmic sweep between 7Hz and 200Hz and back to 7Hz traversed in 15 minutes, this cycle is repeated 12 times for a total of 3 hours for each of three mutually perpendicular mounting position of the battery. One of the directions of vibration must be perpendicular to the terminal face.
The logarithmic frequency sweep shall differ for cells and batteries with a gross mass of not more than 12kg (cells and small batteries), and for batteries with a gross mass of more than 12kg (large batteries).
For cells and small batteries: from 7Hz a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 8gn occurs (approximately 50Hz). A peak acceleration of 8gn is then maintained until the frequency is increased to 200Hz.
For large batteries: from 7Hz to a peak acceleration of 1gn is maintained until 18Hz is reached. The amplitude is then maintained at 0.8mm (1.6mm total excursion) and the frequency increased until a peak acceleration of 2gn occurs (approximately 25Hz). A peak acceleration of 2gn is then maintained until the frequency is increased to 200Hz.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
PASSED
The battery is secured to a testing machine by means of a rigid mount which will support all mounting surfaces of each test battery. The battery is subjected to a halfsine shock of peak acceleration of 150gn and pulse duration of 6 milliseconds. Alternatively, large cells may besubjected to a half-sine shock of peak acceleration of 50gn and pulse duration of 11 milliseconds. Each battery shall be subjected to a half-sine shock of peak acceleration depending on the mass of the battery. The pulse duration shall be 6 milliseconds for small batteries and 11 milliseconds for large batteries.
Each cell or battery shall be subjected to three shocks in the positive direction and to three shocks in the negative direction in each of three mutually perpendicular mounting positions of the cell or battery for a total of 18 shocks.
The battery will pass the test if there is no mass loss, no leakage, no venting, no disassembly, no rupture and no fire and if the open circuit voltage of each test cell or battery after testing is not less than 90% of its voltage immediately prior to this procedure.
UN38.3
CE
RoHS
UKCA
EMC
1x 12.8V 120Ah lithium battery
TITAN recommends Victron Blue Smart chargers for charging our lithium batteries. The Blue Smart range has Bluetooth built-in, as well as normal charge modes so that you can use these chargers on any other batteries you may have
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