Lithium, meet niobium.

DHC Power pairs niobium-based anode chemistry with lithium cells. The result is a battery that charges fast, runs across extreme temperatures, and stays safe — exactly where conventional lithium-ion struggles.

§ 01  /  PRINCIPLE

Why niobium.

Conventional graphite anodes plate lithium when pushed hard or run cold — the root cause of slow charging, degradation, and thermal risk. Niobium-oxide anodes intercalate lithium differently.

FIG 1 / CHARGE — Li⁺ INTERCALATION SCHEMATIC · NOT TO SCALE Nb-OXIDE ANODE SEPARATOR LiMO₂ CATHODE (−) Al (+) Al Li⁺ — FAST, PLATING-FREE

An anode that doesn't fight physics.

Conventional lithium-ion stores charge through slow chemical phase changes — the bottleneck behind long charge times and heat. DHC's niobium-oxide anode is different: a sponge-like mesoporous lattice where lithium intercalates rapidly and in parallel, across short internal paths and without ever plating metallic lithium.

The cell charges with the kinetics of a capacitor and delivers the energy of a battery. Shorter ion paths and lower resistance mean faster recharge, higher sustained power, and significantly less heat.


§ 02  /  ADVANTAGES

What the chemistry unlocks.

Four properties that conventional lithium-ion can't deliver together — and that matter most in the field.

01 / SPEED

Fast charge, even cold.

Accept high charge currents without plating — including at sub-zero temperatures that force conventional cells to crawl.

TARGET0–100% / 10 MIN
02 / RANGE

Wide temperature window.

Stable intercalation across a broad thermal envelope, from deep cold to high heat, with minimal derating.

ENVELOPE−60 / +60 °C
03 / SAFETY

No plating, safer failure.

Eliminating lithium plating removes a primary trigger for thermal runaway — a fundamentally safer cell.

ABUSENAIL · CRUSH
04 / LIFE

Thousands of cycles.

Low mechanical strain during cycling translates to long calendar and cycle life under demanding duty.

RATED3,000+ CYCLES

§ 03  /  PERFORMANCE

Where niobium-lithium pulls ahead.

Directional comparison against conventional graphite-anode lithium-ion. Figures are development targets, not final qualified specifications.

LOW-TEMP CHARGE ACCEPTANCEvs ~20%
FAST-CHARGE RATE4–6C
THERMAL SAFETY MARGINHIGH
CYCLE LIFE3,000+
10min
Target 0–100% charge at full operating temperature
−60°C
Continuous operation floor
3,000cycles
Rated cycle life under demanding duty
Property DHC Niobium-Li Conventional Li-ion
Charge at −60 °C Full rate Severely limited
Fast-charge rate 4–6C 1–3C
Lithium plating risk Eliminated Present
Operating range −60 / +60 °C 0 / +45 °C typical
Cycle life 3,000+ 500–1,000

§ 04  /  APPLICATIONS

Where it deploys.

The cell is no longer the limiting factor. Niobium-lithium operates across the temperature, duty-cycle, and safety envelopes that define real-world mission environments — not the other way around.

ENV / 01−60°C

Sub-Arctic Surveillance

Sustained operation in unheated enclosures across multi-week deployments.

Defense & ISR
ENV / 0210 MIN

Tactical UAVs

Field fast-charge in any operational climate to maximize sorties per day.

Aerospace
ENV / 0372 HR

Military Wearables

Conformal, lightweight power dense enough to run on-body edge compute alongside radios, sensors, and optics across multi-day dismounted missions.

Dismounted
ENV / 0424/7

Industrial Robots

High-cycle packs with rapid opportunity charging that keep AMR and automation fleets running around the clock.

Automation
§ 05  /  ENGAGEMENT

Want the technical detail?

We share deeper performance data and chemistry detail under NDA with qualified programs and partners. Start with a one-page brief.