Batixt R3 Sensing Technology for batteries is unlike more traditional EIS that has limited traction beyond R&D contexts. The technology has greater potential to be applied throughout the entire battery value chain. The speed and comprenhensiveness of Batixt measurements remove most of the previous constraints associated with EIS. We make EIS both easier and more relevant to use in manufacturing and all areas of industry where battery characterisation, testing and evaluation is needed.
Here, the potential of Batixt R3 EIS Sensing Technology is explored for three of the main application areas
BATTERY RESEARCH, DEVELOPMENT AND INNOVATION
BATTERY CELL/MODULE/PACK MANUFACTURING
The combined qualities of speed, comprehensiveness, high-resolution and accuracy make Batixt R3 EIS Scanners an essential tool in any battery laboratory.
One R3 EIS scan with hundreds of frequencies takes only seconds or minutes, and for example 200+ scans with 130 000 data points, gives you the type of high-resolution research grade data you need to be truely innovative.
The capabilities of R3 EIS Sensing Technology far exceed the capabilities of the technology you are currently using , that characterise the physical battery. This means that our technology also will make it possible for you to improve your R&D processes, saving time and money and being more innovative.
Here are some of the areas where the benefits of R3 EIS Sensing Technology can be reaped for researchers:
Up until now, EIS value for improving and accelerating battery manufacturing processes in scaled up production contexts has been limited. This is due to the fact that EIS has been a time-consuming and often pain-staking exercise. Batixt sensing technology changes all of this.
The EIS data you will generate, gives you a complete and accurate fingerprint of the cell/battery in only seconds or minutes.
Here ar some of the areas where Batixt EIS Sensing Technology can help optimise and improve cell/module/pack manufacturing:
The fine grain results from R3 EIS Scanners generate the quality and resolution required to achieve significant improvements in formation, aging and test/verification processes. Furthermore, the level of detail in the data can be used to leverage feedback in real-time production to early-stage processes.
MODULE/PACK MANUFACTURING
There are many highly beneficial uses for R3 EIS Sensing Technology in module or pack manufacturing:
Our preliminary tests are showing variations of 3-5 percent in high quality cells. Because it has not yet been possible to observe battery characteristis in the way Batixt EIS Sensing Technology can, we expect these type of results. If you take these variations into account when you are designing and constructing your modules and packs, you will improve quality and be able to demonstrat for your custmers that you are adhering to the highest quality standards.
Electrochemical Impedance Spectroscopy (EIS) is renowned as a leading method for battery characterisation and plays a crucial role in battery testing and evaluation, offering a detailed, non-destructive approach to understanding the electrochemical processes within a battery.
Batteries are tested and evaluated throughout the value chain for different reasons. This can be to evalate designs in R&D, for quality control in manufacturing or upon deployment of batteries from OEMs, to help consumers evaluate the condition of their batteries, to evaluate second-life potential or as a part of monitoring a battery in any given setting such as energy storage.
Batixt sensing capabilities make EIS significantly more competent, relevant and useful when it comes to testing or evaluating a battery in any context, but especially when larger volumes of batteries need to be evaluated in a short period of time.
Common uses for EIS characterisation in battery testing and evaluation are:
In this application area we can enhance of performance monitoring of battery life within any given application, such as a car, truck or energy storage facility. It is mainly in contexts where larger batteries are deployed that performance monitoring is considered. However, there are many areas where smaller batteries also can support critical systems and where performance monitoring could be required.
The unique capabilities of Batixt battery sensing technology make it possible to identify anomilies in batteries at a much more refined level. These capabilities can be used to leverage predictive maintenance and safety features in battery applications.
In the short term, we envision our technology being used to make battery management systems onboard vehicles or more efficient and for monitoring stationary battery applications .
In the long term we hope to see our own technology integrated in the battery system onboard vehicles.
The combined qualities of speed, comprehensiveness, high-resolution and accuracy make Batixt R3EIS EIS Scanners an essential tool in any battery research laboratory.
One R3 EIS scan with hundreds of frequencies takes only seconds or minutes, and for example 200+ scans with 130 000 data points, gives you the type of high-resolution research grade data you need to be truely innovative.
The capabiliites of R3 EIS Sensing Technology far exceed the capabilities of the technology you are currently using to characterise your batteries. This means that our technology also will make it possible to reevaluate R&D processes to make them more effecient and to increase productivity and innovation.
Here are some of the areas where the benefits of R3 EIS can be reaped:
Up until now, EIS value for improving and accelerating battery manufacturing processes in scaled up production contexts has been limited. This is due to the fact that EIS has been a time-consuming and often pain-staking exercise. Batixt sensing technology changes all of this.
The EIS data you will generate, gives you a complete and accurate fingerprint of the cell/battery in only seconds or minutes.
Here are some of the areas where Batixt R3 EIS Sensing Technology can help optimise and improve cell/module/pack manufacturing:
The fine grain results from R3 EIS Scanners generate the quality and resolution required to achieve significant improvements in formation, aging and test/verification processes. Furthermore, the level of detail in the data can be used to leverage feedback in real-time production to early-stage processes.
MODULE/PACK MANUFACTURING
There are many highly beneficial uses for R3 EIS Sensing Technology in module or pack manufacturing:
Our preliminary tests are showing variations of 3-5 percent in high quality cells. Because it has not yet been possible to observe battery characteristis in the way Batixt R3 EIS Sensing Technology can, we expect these type of results. If you take these variations into account when you are designing and constructing your modules and packs, you will improve quality and be able to demonstrate for your customers that you are adhering to the highest quality standards.
Electrochemical Impedance Spectroscopy (EIS) is renowned as a leading method for battery characterisation and plays a crucial role in battery testing and evaluation, offering a detailed, non-destructive approach to understanding the electrochemical processes within a battery.
Batteries are tested and evaluated throughout the value chain for different reasons. This can be to evalate designs in R&D, for quality control in manufacturing or upon deployment of batteries from OEMs, to help consumers evaluate the condition of their batteries, to evaluate second-life potential or as a part of monitoring a battery in any given setting such as energy storage.
Batixt sensing capabilities make EIS significantly more competent, relevant and useful when it comes to testing or evaluating a battery in any context, but especially when larger volumes of batteries need to be evaluated in a short period of time.
Common uses for EIS characterisation in battery testing and evaluation are:
In this application area we can enhance of performance monitoring of battery life within any given application, such as a car, truck or energy storage facility. It is mainly in contexts where larger batteries are deployed that performance monitoring is considered. However, there are many areas where smaller batteries also can support critical systems and where performance monitoring could be required.
The unique capabilities of Batixt battery sensing technology make it possible to identify anomilies in batteries at a much more refined level. These capabilities can be used to leverage predictive maintenance and safety features in battery applications.
In the short term, we envision our technology being used to make battery management systems onboard vehicles or more efficient and for monitoring stationary battery applications .
In the long term we hope to see our own technology integrated in the battery system onboard vehicles.