Varnika Agarwal

Varnika Agarwal

Battery Research Analyst

Varnika is a Battery Research Analyst at Benchmark Mineral Intelligence where her primary focus is on the technical side of electric vehicle, energy stationary storage and battery market analysis. She was transferred from Rho Motion, which was acquired by Benchmark Mineral. During 2 years at Rho Motion, Varnika has worked on a variety of products across the time and has played an active role in the analysis of different type of battery recycling technologies.She holds PhD in solid-state batteries at University of Oxford, which has helped to hone her research and technical skills.

Recent articles by this Author

Fast charging increasingly driving EV battery degradation

Article | Apr 14, 2026 | 3 min read

Fast charging increasingly driving EV battery degradation

Fast charging for electric vehicles (EVs) is increasingly driving battery degradation, as consumer anxiety and infrastructural constraints are refocusing charging station installations for speed. By 2039, Benchmark’s EV Charging Service expects the majority of new global charging station installations to be fast charge (>22kW AC or DC). Charging speed has increasingly become a point of competition between OEMs, as demonstrated by BYD’s recent Blade 2 announcement, which advertised a five-minute charging speed from 10% to 70% and nine minutes from 10% to 97%.

Is BYD using LMFP for Blade 2.0 and what would this mean for manganese?

Article | Mar 18, 2026 | 5 min read

Is BYD using LMFP for Blade 2.0 and what would this mean for manganese?

BYD may be using lithium iron manganese phosphate (LMFP) cells for its new Blade 2.0 battery platform, unveiled earlier in March, though it has yet to officially declare which chemistry will be used.  A key advantage of the new platform is support for “flash charging” which BYD claims can charge the battery from 10% to 70% in just five minutes when connected to its new 1,500kW charging system.  BYD’s patent activity related to manganese-doped phosphate systems alongside reported improvements in energy density, and reference to a 3.8V operating voltage all point towards BYD using LMFP in the platform.  If BYD does use LMFP for Blade 2.0, Benchmark calculates that this could increase 2026 battery-grade manganese demand by 7%.