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The Gigafactory model requires reliable materials characterization to achieve the promised efficiencies of vertical integration. Unifying the synthesis of battery materials, processing such as dispersion into inks, and production of cells is the first step to high-volume production and reducing vulnerability to supply chain problems. These steps benefit from automated high-throughput materials analysis that can be used for process control. This webinar will discuss in-line and at-line instrumentation combined with automated analyses from microstructural (particle size with laser diffraction) to chemical (stoichiometry with XRF) to atomic level (Li/Ni site mixing with XRD).
This webinar will focus on the following key topics:
• In-line and at-line materials characterization and automated analyses
• Asset management to maximum uptime
• At-line X-ray diffraction analysis of lattice parameters and Li/Ni site mixing
• At-line X-ray fluorescence analysis to quantify Ni-Mn-Co stoichiometry
• In-line particle size analysis to control milling during dispersion
Presenter
Scott A Speakman, PhD – XRD Principal Scientist at Malvern Panalytical
Scott Speakman Ph. D joined Malvern Panalytical as Principal Scientist in 2014. Prior to joining the company, Scott managed the X-ray Shared Experimental Facility at MIT for 8 years. He earned his Ph. D from Alfred University, where he worked with Prof. Scott Misture on in situ X-ray diffraction analysis of ionic conductors for solid oxide fuel cells. He also was a post-doctoral research associate with the Diffraction and Thermophysical Properties group at Oak Ridge National Lab. Scott is a Fellow of the International Center for Diffraction Data and was awarded a 2013 Infinite Mile Award for extraordinary service to MIT.
Malvern Panalytical is a proud sponsor of this event.
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Determination of Battery Safety and Performance Parameters Using Adiabatic and Isothermal Calorimetry
FREE Webinar – Thermal Hazard Technology is a proud sponsor of this event.
This presentation describes two main types of calorimetry which can be used to carry out safety and performance testing on batteries. Isothermal calorimeters allow for direct heat measurement on cells during use, while adiabatic calorimeters can measure heat released from batteries during thermal runaway.
Calorimetry can serve as a quantitative scientific method for evaluation of battery safety but it requires appropriate instrumentation. The principles of operation of both types of calorimeters are described along with specific applications within the field of battery testing.
A combination of both technics allows for detailed thermal characterization of lithium-ion and other rechargeable cells, and differences due to chemistry, cell design, cell age, state of charge and cell size can be evaluated.
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• The principles of adiabatic and isothermal calorimetry
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Danny Montgomery – Technical Performance Manager at Thermal Hazard TechnologyDanny Montgomery has worked at Thermal Hazard Technology for 9 years. His current role is Technical Performance Manager; overseeing the lab and technical aspects of instrumentation manufactured by THT. He joined the company in 2009 after graduating from Southampton University with a master’s degree in physics.
Danny’s focus is primarily on lithium battery calorimetry; both adiabatic and isothermal. He oversees the use of calorimeters for customer sample testing as well as installing calorimeter systems and provided training for battery and automotive companies worldwide, such as Panasonic, BMW and Samsung. Danny works in Thermal Hazard Technology’s UK office in Milton Keynes.
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