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Content type: Technology comparison for B2B battery buyers — distributors, installers, and OEM brands choosing between chemistries. Every figure below carries an evidence grade: Confirmed (textbook electrochemistry or measured datasheet arithmetic), Manufacturer spec (published datasheet, not field data), Industry reporting (analyst, benchmark, or press data of medium reliability), or Engineering inference (labeled calculation). Cycle-life figures are only ever compared at stated test conditions — DoD, temperature, and C-rate — because the same cell quotes a different life under each. Laboratory results are never presented as shipping product specifications. LJY Energy is a China-based LiFePO4 battery supplier and OEM/ODM partner working with a trusted manufacturing partner; this article is a selection guide, not a claim that LJY Energy supplies NMC products.
The short answer: NMC wins on energy density (250–300 vs 160–180 Wh/kg at cell level) — which is why it still dominates long-range EVs and weight-critical devices. LFP wins on cycle life (3,000–6,000+ vs 1,000–2,000 cycles at 80% DoD, at stated test conditions), thermal safety, purchase price ($81 vs $128/kWh packs, BNEF 2025), lifetime cost, and freedom from cobalt/nickel supply-chain volatility. For storage, RV, marine, and C&I applications, LFP is the rational default; for range-critical EVs and drones, NMC earns its premium. This guide gives you the evidence-graded numbers — a worked TCO example plus the cobalt/nickel risk analysis most comparisons skip. (A spoke of our Battery Chemistry Comparison Hub.)
LiFePO4 vs NMC at a Glance
| Dimension | LiFePO4 (LFP) | NMC (ternary lithium) | Evidence grade |
|---|---|---|---|
| Nominal / full-charge voltage | 3.2 V / 3.65 V | 3.6–3.7 V / 4.2 V | Confirmed |
| Cell energy density | 160–180 Wh/kg typical | 250–300 Wh/kg typical | Manufacturer specs / industry reporting |
| Cycle life @ 80% DoD | 3,000–6,000+ cycles | 1,000–2,000 cycles | Manufacturer specs (stated conditions) |
| Calendar life | 10–15+ years typical claim | ~8–10 years typical | Industry reporting |
| Fast charging | Usually ≤1C; strong discharge pulses | 2–3C+ in EV designs | Manufacturer specs |
| Discharge at −20 °C | ~70–80% capacity retained | Better retention, ~85–90%+ | Manufacturer specs |
| Charge below 0 °C | Not permitted (lithium plating) | Restricted; slightly more tolerant | Confirmed (datasheets) |
| Thermal-runaway onset | ~270 °C (industry tables) | ~150–210 °C (falls with Ni content) | Industry tables / peer-reviewed |
| Pack price, 2025 | $81/kWh | $128/kWh | BNEF 2025 survey |
| Cobalt / nickel content | None / none | Yes / yes | Confirmed (chemistry) |
| Recycling economics | Weak (low metal value) | Strong (Co/Ni recovery value) | Industry reporting |
| Best fit | Storage, RV, marine, C&I, hot climates | Long-range EV, drones, weight-critical | Engineering inference |
Terms used in this article: LFP = lithium iron phosphate (LiFePO4). NMC = lithium nickel manganese cobalt oxide (LiNiMnCoO2), “ternary lithium” in Chinese industry usage. Variants are named by nickel:manganese:cobalt ratio — NMC 111, 532, 622, 811; higher nickel means more density and less cobalt, but lower thermal stability. DoD = depth of discharge. C-rate = current relative to capacity (1C = full capacity in one hour). TCO = total cost of ownership; LCOS = levelized cost of storage (cost per kWh delivered over asset life).
1. Chemistry and Voltage Platforms: Why the Numbers Differ
Confirmed (textbook electrochemistry): the voltage gap is the chemistry, not a design choice. LFP’s olivine cathode runs a flat 3.2 V nominal plateau — charge to 3.65 V, discharge to 2.5 V cutoff. NMC’s layered-oxide cathode runs 3.6–3.7 V nominal — charge to 4.2 V, typical 3.0 V cutoff. Every protection threshold — charger setpoints, BMS limits, inverter cutoffs — derives from these four numbers.
This has one immediate practical consequence: the two chemistries are never drop-in interchangeable. A “48 V” LFP bank is 16 cells in series (~51.2 V nominal, 58.4 V full); a “48 V” NMC bank is 14 cells in series (~51.8 V nominal, 58.8 V full) — with different balance behavior and low-voltage cutoffs, so the BMS, charger profile, and inverter settings must all be re-specified. Swapping chemistries without re-engineering the protection scheme is how packs get damaged. Our BMS selection guide details what the voltage window implies for protection design.
2. Energy Density: Where NMC’s Lead Is Real — and Where It Shrinks
Energy density is NMC’s decisive, structural advantage. Typical shipping cells: LFP 160–180 Wh/kg, NMC 250–300 Wh/kg (manufacturer specs / industry reporting). A measured LFP anchor: the widely used EVE LF280K (280 Ah) holds 896 Wh at 5.42 kg — ≈165 Wh/kg (confirmed datasheet arithmetic). Newer LFP cells push toward ~190–200 Wh/kg; high-nickel NMC 811 targets ~300 Wh/kg (both manufacturer spec). At cell level, NMC carries roughly 60–80% more energy per kilogram.
But buyers purchase packs, not cells — and at pack level the gap narrows. Cell-to-pack designs (notably LFP blade/CTP architectures) cut the structural overhead that historically penalized LFP: CATL’s LFP Qilin pack is specified at 160 Wh/kg at pack level (manufacturer spec, 2022), closing much of the distance to mid-range NMC packs. Engineering inference: where weight is the binding constraint — a long-range EV, a drone — NMC’s cell-level lead translates directly into capability. Where the battery sits in a container, cabinet, or chassis with room to spare — stationary storage, RV, marine — LFP’s pack-level economics dominate. Compare at the pack level for your form factor, never cell spec to cell spec.
3. Cycle Life: Only Comparable With Test Conditions Attached
Most comparisons mislead here by quoting cycle counts without the DoD, temperature, and C-rate behind them. Two rules: a cycle count is meaningless without its test regime; deeper discharge, higher temperature, and higher C-rate all shorten life for both chemistries.
LFP — 3,000–6,000+ cycles @ 80% DoD (manufacturer specs, stated conditions). The EVE LF280K datasheet specifies ≥6,000 cycles at 0.5C/0.5C, 25 °C, under a 300 kgf fixture, to 80% of initial capacity — note every qualifier; remove the fixture or raise the temperature and the number falls. Earlier-generation LFP was rated ~3,500 cycles under harsher 1C regimes.
NMC — 1,000–2,000 cycles @ 80% DoD (manufacturer specs / industry reporting, typical reference values). Automotive NMC cells are generally rated 1,000–1,500 cycles to 80% capacity at 100% DoD; lighter regimes (80% DoD, moderate C-rate, 25 °C) extend this toward ~2,000. Always check the regime behind any headline figure.
The structural takeaway: LFP delivers roughly 3× the cycle life of NMC under comparable conditions — the olivine cathode barely changes volume during cycling, while layered NMC cathodes crack and shed active material (confirmed materials science). For daily-cycling applications — solar storage, peak shaving, fleet charging — this alone usually decides the TCO math in section 8. Whatever the datasheet says, verify what you receive: our Grade A vs Grade B verification guide shows how to capacity-test incoming cells — a discipline for any chemistry.
4. Calendar Life: Time Degrades Batteries Even When They Sit Still
Industry reporting: LFP manufacturers typically claim 10–15+ years of calendar life; NMC is generally positioned at ~8–10 years under comparable conditions. Both figures assume moderate temperature (~25 °C) and mid-range storage SoC — the two variables that dominate calendar aging alongside time itself.
Engineering inference (labeled): published aging studies show roughly ~4% capacity loss per year for LFP stored at 25 °C and high SoC — a cell fades to ~80% in about 5 years whether cycled or not under warm, full-charge storage: the “use it or lose it” property of calendar aging. NMC ages faster under the same conditions, especially at 100% SoC and elevated temperature. Practical rules for both: store at 40–60% SoC, keep cool, and never evaluate a 10-year project on cycle life alone — calendar aging sets the floor.
5. Rate Capability and Fast Charging: NMC Charges Faster, LFP Punches Harder
The two chemistries split the rate question in opposite directions. NMC charges faster: EV-grade NMC routinely supports 2–3C fast charging (10–80% in ~20–30 minutes) — why NMC remains the default for premium EVs (manufacturer specs). LFP discharges harder: LFP cells commonly sustain 3C pulse discharge with less voltage sag and less heat, while standard charge rate is usually capped at ~1C (manufacturer specs).
Engineering inference: for most B2B applications the fast-charge crown matters less than it appears. Stationary storage, RV, marine, and backup charge over hours from solar or the grid — 0.5C fills a 10 kWh pack in two hours, stressing neither chemistry. Fast charging matters in two segments: EVs (NMC’s home turf) and opportunity-charged fleets. Everywhere else, LFP’s strong, cool high-current discharge — cranking, motor starts, inverter surges — is the more useful rate property.
6. Low-Temperature Performance: NMC’s Quiet Advantage
Discharge: LFP typically retains ~70–80% of rated capacity at −20 °C (manufacturer specs); NMC retains more — generally ~85–90%+ — thanks to better low-temperature ionic conductivity. This is why NMC vehicles lose less winter range than LFP vehicles.
Charging is the hard limit for both — with LFP stricter. Confirmed (cell datasheets): LFP must not be charged below 0 °C — lithium plates onto the anode instead of intercalating, permanently destroying capacity and creating a dendrite hazard. Standard datasheet windows read “charge 0–55 °C, discharge −20–60 °C” (e.g., EVE LF280K). NMC datasheets are similarly restricted (typically charge 0–45 °C) but tolerate low-temperature charging slightly better — a small practical difference; no lithium-ion chemistry should be fast-charged cold without preheating.
Engineering inference: for unheated outdoor sites in deep cold, neither chemistry is ideal without thermal management — budget heating with LFP, derate capacity with NMC, or evaluate sodium-ion, whose genuine edge is cold-climate operation (see our sodium-ion vs LFP comparison). For the heated-space and mild-climate projects that make up most B2B storage, low-temperature performance should not drive the chemistry decision.
7. Thermal Safety and BMS Requirements: The Widest Gap in the Comparison
This is the dimension where chemistry is destiny. Thermal-runaway onset — the point where self-heating becomes unstoppable — is set by the cathode, and the two chemistries sit far apart:
- LFP: ~270 °C — industry-table figure for runaway onset; the olivine cathode’s strong phosphorus–oxygen bonds release little oxygen even when hot.
- NMC: ~150–210 °C — industry tables, falling as nickel content rises (low-nickel NMC 111 near the top; NMC 811 near the bottom).
Peer-reviewed (third-party): a 2025 study in Batteries (MDPI) heated 50 Ah LFP, NCM 523, and NCM 622 cells to runaway under identical conditions. Critical surface temperatures: LFP 346 °C > NCM 523 290 °C > NCM 622 281 °C; trigger energy: LFP 592.8 kJ vs NCM 622 262 kJ — LFP needed more than twice the abuse energy and NCM ejected far more burning mass (up to ~39% vs ~22%). “Onset” definitions vary by test method, so treat any single °C figure as method-dependent — but the ranking (LFP meaningfully more stable) is consistent across studies.
Two qualifications: LFP is safer, not safe — a runaway LFP cell still vents large volumes of flammable, toxic gases. And billions of NMC cells run safely in EVs because the risk is engineered out at pack level: liquid cooling, cell spacing, vent paths, propagation barriers.
What this means for BMS and pack design: NMC demands tighter everything — narrower voltage windows (overcharge above 4.2 V degrades NMC fast), cell-level temperature monitoring, propagation containment. LFP tolerates wider abuse margins, which is why LFP packs are simpler and cheaper to make safe. Confirm the BMS window matches the chemistry — an LFP-tuned BMS on NMC cells (or vice versa) is a latent failure. See our BMS selection guide for each chemistry’s protection thresholds.
8. Cost: Purchase Price and the 10-Year TCO Math
Industry reporting — BloombergNEF 2025 survey: the global average lithium-ion pack price fell 8% to a record $108/kWh. By chemistry: LFP packs $81/kWh, NMC packs $128/kWh — a $47/kWh purchase gap. Stationary-storage packs (overwhelmingly LFP) averaged just $70/kWh, down 45% year-on-year; the lowest observed LFP cell/pack prices were $36/$50 per kWh. Notably, cobalt prices rose 124% between January and October on DRC restrictions, yet overall pack prices still fell — because the market kept shifting toward cobalt-free LFP.
Purchase price understates LFP’s edge, because cycle life compounds it. Worked example (engineering inference, all assumptions stated): 10 kWh system, one 80% DoD cycle per day, 10 years:
| Assumption / result | LFP system | NMC system |
|---|---|---|
| Pack price (BNEF 2025) | $81/kWh → $810 for 10 kWh | $128/kWh → $1,280 for 10 kWh |
| Cycle life @ 80% DoD, 25 °C (manufacturer spec) | 6,000 cycles | 2,000 cycles |
| Pack replacements over 10 yrs (3,650 cycles) | 0 (one pack lasts) | 1 (second pack ~year 5.5) |
| Total pack capex | $810 | $2,560 |
| Energy delivered (10 kWh × 80% × 365 × 10) | 29,200 kWh | 29,200 kWh |
| LCOS — pack cost per kWh delivered | ~$0.028/kWh | ~$0.088/kWh |
Assumptions and limits: pack prices only — excludes inverter/PCS, installation, O&M, efficiency losses (~5–10%), financing, and end-of-life value; assumes a full 80% DoD cycle every day at 25 °C (flattering both chemistries); NMC replacement priced at 2025 levels; calendar aging ignored (slightly flattering the 10-year LFP case). Even so, the structural result holds: in daily-cycling applications, NMC’s shorter life roughly triples its lifetime storage cost versus LFP. For low-utilization backup (a few dozen cycles per year), cycle life barely matters — the purchase-price gap is the whole story. Run your own quotes through our battery landed-cost calculator with identical assumptions.
9. Supply-Chain Risk: The Differentiator Most Comparisons Skip
NMC’s cathode needs cobalt and nickel; LFP’s needs iron, phosphorus, and lithium. That substitution moves the buyer from two of the most geopolitically concentrated mineral markets in the world to some of the most abundant.
Cobalt — the concentrated risk. Industry reporting (Cobalt Institute, May 2026): the DRC supplied ~73% of mined cobalt in 2025 (Indonesia second at ~14–15%). In February 2025 the DRC suspended cobalt exports, then imposed a 96,600-tonne annual export quota for 2026–2027 — roughly half of 2024 levels. Prices: $82,000/t (Apr 2022) → $21,275/t (Jan 2025) → sharp recovery after the restrictions (BNEF: +124% Jan–Oct 2025). A multi-year NMC agreement underwrites that volatility; high-nickel NMC 811 only trades cobalt exposure for nickel exposure.
Nickel — the Indonesia factor. Industry reporting: Indonesia accounts for over half of mined nickel supply in 2025 (some estimates 60%+), following its ore-export ban and smelter build-out since 2020; battery-grade refining is even more concentrated. The March 2022 LME nickel short squeeze is the textbook case of how fast a concentrated market can gap. And ~70% of nickel goes to stainless steel — battery buyers compete with a different industry for supply.
LFP — abundant inputs, concentrated manufacturing. Confirmed: iron and phosphorus are among the most abundant industrial minerals, with diversified supply and no chokepoint comparable to DRC cobalt. Lithium is the shared exposure — both chemistries need it. LFP’s concentration risk is in manufacturing: China makes the overwhelming majority of the world’s LFP cells and cathode material (industry reporting; BNEF notes China meets nearly all global LFP demand). So LFP pricing is set by Chinese overcapacity and competition (pushing prices down), while NMC pricing carries a mineral-volatility surcharge that arrives exactly when you can least afford it.
Engineering inference for procurement: for stable multi-year pricing — distribution contracts, fixed-price bids, OEM cost roadmaps — LFP’s input basket (iron + phosphorus + lithium) is structurally more forecastable than NMC’s (nickel + cobalt + manganese + lithium). Price the volatility, not just the price: ask NMC suppliers how their quote handles a 50% cobalt move, in writing.
10. Recycling and Environment: NMC’s One Clear Win
End-of-life is the one lifecycle dimension where NMC beats LFP on economics. Industry reporting: NMC packs carry recoverable cobalt and nickel worth extracting — established hydrometallurgical recyclers operate profitably on NMC feedstock. LFP’s recoverable metals (lithium, iron, phosphate) are worth far less per tonne, so LFP recycling has historically been marginally economic, though improving lithium prices and scaled hydrometallurgy are narrowing the gap.
On environment the comparison is more balanced. LFP avoids cobalt mining’s documented social and governance issues in the DRC and nickel processing’s footprint in Indonesia — a real ESG advantage for buyers with responsible-sourcing policies. Both chemistries share lithium-extraction impacts, and both are classified as dangerous goods in transport (UN 3480/3481) requiring licensed recyclers, not landfill. Regulatory direction (notably the EU Battery Regulation’s recycled-content and due-diligence rules) is tightening for both — confirm supplier compliance documentation regardless of chemistry.
11. The Verdict by Application: No Universal Winner
Chemistry choice is application choice — with no presumption that LFP is always the answer:
| Application | Recommended | Why |
|---|---|---|
| Long-range EVs (400+ km) | NMC | Energy density is the product; every kg saved is range. Fast charging sells cars. |
| Drones / eVTOL / portable power | NMC | Weight-critical; flight time scales with Wh/kg. |
| Home & C&I energy storage | LFP | Daily cycling → 3× cycle life; lowest LCOS; safest indoors. (See why Tesla chose LFP for Megapack.) |
| RV / marine / golf cart | LFP | Safe in living spaces; deep-cycle durability; mature 12V/48V ecosystem. |
| Hot climates (40 °C+ ambient) | LFP | Higher thermal-stability margin; slower heat-driven degradation. |
| High-utilization fleets / peak shaving | LFP | TCO dominated by cycle life: ~$0.03 vs ~$0.09/kWh in our example. |
| Deep-cold, unheated sites | NMC (or sodium-ion) | Better cold discharge — but budget thermal management either way. |
| Short-range / budget EVs | LFP | Cost and cycle life outweigh range; the market has voted this way. |
| UPS / backup (low utilization) | LFP | Calendar life and safety win; cycle count barely matters. |
The pattern: where the battery moves, NMC; where the battery sits, LFP. Weight- and volume-constrained applications pay NMC’s premium in dollars, thermal-management complexity, and supply-chain volatility because they must. Stationary and recreational applications — the core of B2B battery distribution — gain nothing from NMC’s density and pay for all of its downsides. For the full chemistry-by-application map, see the Battery Chemistry Comparison Hub.
Sources
- BloombergNEF 2025 battery price survey — avg pack $108/kWh; LFP $81/kWh; NMC $128/kWh; stationary $70/kWh; lowest LFP cell/pack $36/$50; cobalt +124% Jan–Oct 2025: https://battery-tech.net/battery-markets-news/lithium-ion-battery-pack-prices-hit-record-low-at-108-kwh/ (accessed October 2026).
- BNEF 2025 summary — BEV packs $99/kWh; China −13% to $84/kWh: https://www.evinfrastructurenews.com/ev-technology/bloomberg-nef-lithium-ion-battery-pack-prices-drop-worldwide-ev-applications-hit-by-higher-materials-cost (accessed October 2026).
- LFP vs NCM 523/622 thermal-runaway comparison, 50 Ah cells — critical temps LFP 346 °C > NCM 523 290 °C > NCM 622 281 °C; trigger energy 592.8 vs 262 kJ (Batteries, MDPI, peer-reviewed): https://www.mdpi.com/2313-0105/11/1/24 (accessed October 2026).
- LFP 18650 thermal-ramp study — onset ~140 °C at 50–100% SoC (RSC Advances, peer-reviewed): https://pubs.rsc.org/en/content/articlehtml/2015/ra/c5ra05897j (accessed October 2026).
- EVE LF280K (3.2 V 280 Ah) spec, Ver. B — ≥6,000 cycles @ 0.5C/0.5C, 25 °C, 300 kgf clamp, to 80% (manufacturer spec): http://www.battery-germany.de/wp-content/uploads/2022/02/LF280K-280Ah-Product-Specification-Version-B.pdf (accessed October 2026).
- Cobalt Institute Market Report 2025 (May 2026) — DRC ~73% of mined cobalt; export ban/quota (industry reporting): https://www.cobaltinstitute.org/wp-content/uploads/2026/05/Cobalt-Market-Report-2025.pdf (accessed October 2026).
- DRC cobalt ban Feb 2025 → 96,600 t/yr quota 2026–2027; $82,000/t (2022) → $21,275/t (Jan 2025) → recovery: https://www.themeridian.info/gsbrief/3395342_cobalt-crashed-the-drc-banned-exports-the-price-spiked-africa-still-did-not-capture-the-value (accessed October 2026).
- Indonesia nickel — 50–65% of mined supply 2025 (industry reporting): https://carboncredits.com/nickel-prices-today/ and https://www.petromindo.com/news/article/photo-news-indonesia-pushes-mining-downstreaming-to-boost-value-added-exports (accessed October 2026).
- High-nickel NMC cells ~250–300 Wh/kg; LFP peak ~200 Wh/kg (industry reporting): https://www.powersys.com/2026/09/geely-prepares-500-wh-kg-solid-state-ev-battery/ (accessed October 2026).
- LFP runaway onset ~270 °C (industry tables, third-party): https://vectree.io/pdf/c/electrochemistry-and-thermal-runaway-management-in-utility-scale-lithium-iron-phosphate-lfp-battery-packs (accessed October 2026).
- NMC vs LFP overcharge fire-hazard tests (MDPI Applied Sciences 2017, peer-reviewed): https://www.mdpi.com/2076-3417/7/12/1314 (accessed October 2026).
Frequently Asked Questions
Is LiFePO4 or NMC better for energy storage?
LiFePO4, generally: 3,000–6,000+ cycles at 80% DoD (vs 1,000–2,000 NMC), higher thermal-runaway onset, $81 vs $128/kWh packs (BNEF 2025), no cobalt/nickel exposure. NMC’s density edge matters where weight or volume constrains the design — vehicles, drones — not in a battery container.
How much cheaper is LiFePO4 than NMC?
BNEF 2025: LFP packs $81/kWh vs NMC $128/kWh — a $47/kWh purchase gap. Over 10 years of daily cycling it widens: a ~2,000-cycle NMC pack needs mid-life replacement, a 6,000-cycle LFP pack doesn’t, making LFP’s levelized cost roughly one-third of NMC’s in our example.
Is NMC more dangerous than LiFePO4?
NMC’s runaway onset is lower (~150–210 °C, falling with nickel content) than LFP’s (~270 °C; peer-reviewed tests confirm LFP needs far more heat input). Not ‘unsafe’ — billions of NMC cells run safely in EVs — but it demands stricter thermal management, tighter BMS limits, and more attention to spacing and venting.
Why does NMC use cobalt, and is that a supply risk?
Cobalt stabilizes the NMC cathode and lifts energy density. ~72–73% of mined cobalt came from the DRC in 2025; the Feb 2025 export ban and 96,600-tonne quota showed how fast policy moves prices (BNEF: +124% Jan–Oct 2025). High-nickel NMC 811 cuts cobalt but adds nickel exposure — Indonesia supplies over half of mined nickel.
Can I replace an NMC battery with LiFePO4 (or vice versa)?
Only with a system redesign, not a drop-in swap. LFP: 3.2 V nominal (3.65 V full, 2.5 V cutoff); NMC: 3.6–3.7 V nominal (4.2 V full, ~3.0 V cutoff). Series count, charger setpoints, BMS windows, and inverter cutoffs all change — e.g., 48 V LFP is 16S (~51.2 V) vs NMC 14S (~51.8 V). Confirm every protection threshold first.
Tell Us Your Application — We’ll Help You Choose
Choosing between LFP and NMC means choosing between lifetime cost, safety margins, weight, and supply-chain exposure — and the right answer depends on your duty cycle, climate, and business model. As a China-based LiFePO4 battery supplier and OEM/ODM partner working with a trusted manufacturing partner, LJY Energy helps distributors, installers, and OEM brands specify LiFePO4 cells and custom storage packs — and sanity-check any chemistry quote against what matters: tested cycle life at stated conditions, verified thermal behavior, cost per kWh delivered.
Disclaimer: This guide is based on publicly available data graded by evidence level (Confirmed / Manufacturer spec / Industry reporting / Engineering inference) as of October 2026. Specifications vary by manufacturer, product generation, and test conditions — always confirm the datasheet and warranty for the cells you purchase. Price benchmarks (BloombergNEF 2025) are global averages, not quotes. Nothing here implies LJY Energy manufactures cells, owns production facilities, or supplies NMC products; LJY Energy is a China-based LiFePO4 battery supplier and OEM/ODM coordination partner working with a trusted manufacturing partner.
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