Pouch High-Power Cell
Trydan Tech HV
High-power pouch cell delivering 10 Ah capacity with 300 Wh/kg energy density and 150 A maximum discharge rate.
Overview
The Trydan Tech HV Series is a high-power lithium-ion pouch cell designed for applications that demand sustained high current and high energy density. Released in 2026 and with the manufacturer based in India, this pouch cell delivers 10 Ah capacity and 39 Wh of energy at a nominal voltage of 3.9 V, with a maximum continuous discharge capability of 150 A, making it well suited to high-power systems operating under aggressive load profiles.
Key Features
High discharge rate: 150 A continuous (15.0 C)
Energy density: 300 Wh/kg
Power density: 4500 W/kg
Cathode: Ni-based
Applications: aviation, motorsports, e-mobility
Technical Specifications from the Manufacturer
Parameter
Manufacturer
Trydan Tech
Model
HV Series
Type
Li-ion
Form factor
Pouch
Country of origin
India
Release year
2026
Nominal voltage
3.9
Energy capacity [Wh]
39
Capacity [Ah]
10
Gravimetric energy density [Wh/kg]
300
Gravimetric power density [W/kg]
4500
Max continuous discharge [A]
150
Volume [cm³]
64.6
Mass [g]
130
Positive electrode (cathode)
Ni-based
Negative electrode (anode)
Graphite/Si additive
Value
Applications & Use‑Cases
The Trydan Tech HV is well suited to the following applications due to its pouch form factor and high power performance.
Aviation: Requires high specific energy for extended flight duration, high power-to-weight ratio for climb performance, and reliable operation across wide temperature ranges at altitude.
Motorsports: Demands sustained high discharge under competitive load profiles, rapid transient response for acceleration, and thermal stability to maintain performance during race conditions.
E-Mobility: Requires balanced energy and power density for range and acceleration, high cycle life for daily use, and robust calendar life to ensure long-term reliability.
General Applications: Suitable for applications requiring reliable lithium-ion performance with proven cycle life, consistent capacity delivery, and operational safety across diverse use cases.
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Performance & Model Data
Below are modelled performance metrics for the Trydan Tech HV across key indicators, including constant current behaviour, rate capability, temperature dependence, and available power under representative drive cycle conditions.
Constant Current Voltage
Access Trydan Tech HV constant-current discharge curves in Voltt to size your pack against the voltage window your system actually needs. (Chart shown is illustrative, not HV data.)
Constant Current Temperature
Access Trydan Tech HV thermal discharge data in Voltt to specify cooling and cell spacing before you commit to a pack layout. (Chart shown is illustrative, not HV data.)
Pulse Power Behaviour
Access Trydan Tech HV pulse power maps in Voltt to set peak current limits and parallel count for your worst-case load. (Chart shown is illustrative, not HV data.)
Dynamic Profile Response
Access Trydan Tech HV mission profile simulations in Voltt to prove the pack holds up over a real duty cycle before you build it. (Chart shown is illustrative, not HV data.)
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Case Studies
See how we helped McMurtry reduce cell evaluation time by 70% through data driven testing and modelling.
Motorsports
McMurtry Automotive: Faster cell evaluation
McMurtry Automotive used The Voltt and validated cell models to evaluate the transition from the Molicel P45B to P50B during early pack concept development.
Side by side modelling enabled rapid comparison of electrical and thermal behaviour, avoiding lengthy physical test campaigns. This approach reduced cell evaluation time by seven months, allowing the team to lock in cell selection and pack assumptions earlier while lowering technical risk and accelerating vehicle development.
Comparison with Related Cells
Compare the Trydan Tech HV with similar Pouch cells offering comparable capacity and performance characteristics.
Model
Capacity
Max Discharge
Typical Use
Access Cell Data
Manufacturer Background
Trydan Tech
Trydan Tech is an American and Indian developer of high-power lithium-ion and sodium-ion cells
Trydan Tech operates from Pleasanton, California and Bengaluru, India, building lithium-ion cells engineered for high power delivery and low internal resistance. Its range spans cylindrical, pouch and large-format prismatic LFP cells, alongside sodium-ion designs for stationary storage. The technical focus is electrode composition and a dual active-material system that combines battery and supercapacitor behaviour in a single cell, aimed at sustaining high power without the heat generation that normally accompanies it. The company targets electric vehicles, eVTOL aircraft, industrial systems and data centre backup, where charge and discharge rate rather than energy density sets the design limit. Its distinguishing claim is extended cycle life under high-rate duty.
Frequently Asked Questions
What is the capacity and voltage of the Trydan Tech HV?
The Trydan Tech HV has a nominal capacity of 10.0 Ah and a nominal voltage of 3.9 V, providing 39 Wh of energy per cell.
What is the maximum continuous discharge capability of the Trydan Tech HV?
The Trydan Tech HV supports continuous discharge rates up to 150 A, delivering exceptional power density of 4,500 W/kg.
How much does the Trydan Tech HV weigh and what is its volume?
The cell has a mass of 130 g and a volume of 64.6 cm³.
In which industries is the Trydan Tech HV commonly used?
The Trydan Tech HV is used across eVTOL, motorsports, drones, and e-mobility, applications that demand both high energy and power density.
What is The Voltt and how does it accelerate cell evaluation?
The Voltt holds 500+ verified commercial cell datasheets alongside validated simulation models built from cells characterised in About:Energy's own lab. Engineers screen candidates against their real duty cycle before buying hardware, which cut cell evaluation time by seven months for McMurtry Automotive and reduces evaluation cycles by up to 70%.
What data can be extracted using The Voltt?
Constant-current discharge curves at multiple C-rates, DC internal resistance against state of charge and temperature, pulse power maps, thermal response, and full mission-profile simulation with user-defined pack configurations. Models are available as equivalent circuit, thermal, physics-based and degradation formats, exportable for use in MATLAB, Simulink and Python workflows.
