Abattoir 200 kWh BESS — 10-Year TCO Use Case (US, r9)

Use-case model. Equipment identifiers are publicly-marketed OEM products listed by name; final selection is via RFQ. Evidence date: 2026-02-10. Limitation: this page reports one scenario at US$0.0853/kWh energy and $18/kW-month demand; site-specific tariffs will move NPV.

Verdict (scenario model, r9): NPV = −US$71,424 over 10 years at an 8.00% real discount rate; simple payback = none; discounted payback = none; LCOS = US$0.3165/kWh. Standalone economics do not recover capex on the scenario.

0. Decision table (TL;DR)

Equipment / scopeLocationHorizonEvidence dateKey resultVerdict
200 kWh LFP BESS + 60 kW PCS (named OEMs: BYD Battery-Box Premium HVM, Sungrow SH5/6/8/10/12T or ST2752UX, Deye SUN-5–20K-SG01HP3-EU-AM2, SolaX X3-ULTRA, Fox ESS H3 / KH series)US abattoir (small-plant envelope, C&I demand tariff)10 yr2026-02-10PV(cost) = $116,860; PV(benefit) = $45,436; NPV = −$71,424; LCOS = $0.3165/kWh; payback = noneNO-GO on economics alone; requires ITC retention, resilience valuation, or state rebate stacking

Read further for the computed cash flow, explicit bounded assumptions, named OEM equipment with datasheet links, and standards. Request a vetted RFQ

1. Facility & load profile

An abattoir (US meat-processing plant) runs continuous refrigeration, hot-water sanitising, kill-floor motors, and cold-storage holding. Peaks cluster at start-of-shift sanitation and late-afternoon blast-chill cycles, driving the facility's monthly kW demand charge on a commercial/industrial tariff.

ParameterValueSource
Site peak demand (baseline envelope)~450 kWU.S. DOE/AMO, "Energy Footprint of a Meat-Processing Plant"
Refrigeration load (continuous)~120 kWU.S. DOE/AMO, "Energy Footprint of a Meat-Processing Plant"
Critical cold-storage autonomy target2 h @ 80 kWUSDA FSIS Directive 5000.1 — cold-chain holding obligation, operator-implemented (9 CFR 416 sanitation performance standards)
Utility tariff classCommercial / Industrial, demand-billedEIA, "Electric Power Monthly" Table 5.6.b (PDF)
Avg retail electricity price (US industrial, 2024)$0.0853/kWhEIA, "Electric Power Monthly" Table 5.6.b (PDF)
Demand charge baseline$18/kW-monthEIA, "Electric Power Monthly" Table 5.6.b (PDF) — commercial & industrial demand-charge band
Peak-shave setpoint60 kW (PCS-limited)Model assumption — bounded
Peak-shave utilisation600 hr/yrModel assumption — bounded
Annual cycle count~330 cycles/yr @ 80% DoDModel assumption — bounded (LFP envelope)

2. Named equipment under audit (model family, OEM datasheet)

The figures in this page were computed against a 200 kWh LFP / 60 kW PCS reference design. The following publicly-marketed OEM products are known-good candidates for each sub-assembly. Final selection is via RFQ.

Sub-assemblyReference specNamed OEM models (publicly marketed) + datasheet / product URL
Battery (200 kWh, LFP, DC)200 kWh, ≥3,500 cycles @ 80% DoD; cells/modules to UL 1973; pack-level to IEC 62619 BYD Battery-Box Premium HVM (Premium HVS / HVM product page: HVM 3–8 modules series, usable 8.1–21.7 kWh; 3 stacks parallel to 65.0 kWh; cobalt-free LFP; VDE 2510-50) — scale 3 stacks × 21.7 kWh ≈ 65 kWh per cluster, three parallel clusters ≈ 195 kWh for the computed 200 kWh envelope.
Sungrow SBR064-256 (SBR064-256 product page: 3.2 kWh per LFP module; 6.4–25.6 kWh per unit; 30 A max charge/discharge; 100% DoD) — pair with ST2752UX PCS for a C&I build.
SolaX HS160-PA HV LFP (HS160-PA product page: 64–256 kWh / 204.8–819.2 Vdc; 8,000+ cycles at 0.5C; 173 A peak; 4–16 packs per cluster, DC-parallel to 64 packs / 1024 kWh).
Deye BOS-G HV LFP (BOS-G product page: 5.12 kWh / 51.2 V / 100 Ah per module; 20.48–61.44 kWh from 4–12 modules; >6,000 cycles; intelligent BMS with aerosol fire extinguishing).
PCS / hybrid inverter (60 kW)60 kW AC, 480 V three-phase, UL 1741 / IEEE 1547; safety to IEC 62109-1 & -2 Sungrow ST2752UX liquid-cooled container (ST2752UX product page: 2752 kWh / 1500 V DC / −30~50 °C; pairs with SG3150/4400UD-MV) — use as oversize reference; per-PCS spec confirmed at RFQ.
Deye SUN-5/6/8/10/12/15/20K-SG01HP3-EU-AM2 (SUN-5–20K-SG01HP3-EU-AM2 product page: 97.6% max / 97.0% EU / >99% MPPT; 2 MPPT 150–850 V (1000 V max); battery 160–700 V, 50 A charge/discharge) — three units parallel for ~60 kW.
SolaX X3-ULTRA 15/20/25/30 kW hybrid (X3-ULTRA product page: MPPT 160–950 V, 36 A each; 200% PV oversizing; 60 A charge/discharge; 10-unit parallel; IP66; Type II SPD).
Fox ESS H3 PRO hybrid (H3 PRO product page: 97.8% max efficiency, MPPT 99.9%; high-voltage batteries; IP65) and KH/KA series (KH7–KH10.5 single-phase HV hybrid).
Standards applying to all cells/packsUL 1973 (cells/modules); IEC 62619 (industrial lithium); IEC 63056 (stationary ESS ≤1500 V DC); UN 38.3 (transport) UL 1973 (UL webstore); IEC 62619:2022 ed2 (IEC webstore); IEC 63056:2020 (IEC webstore); UN Manual of Tests and Criteria, Rev.7 — §III (UN 38.3).
PCS safety standardsIEC 62109-1 / -2 (CE) IEC 62109-1:2010 (IEC webstore); IEC 62109-2:2011 (IEC webstore).
EV charging reference (out of scope, informational)22 kW AC smart charger, IP54Huawei FusionSolar SCharger-7KS-S0 / SCharger-22KT-S0 (SCharger product page).
Cabinet / enclosure (BOS)NEMA 3R / IP54, wash-down tolerantIntegrator-supplied; sized to OEM manual — site-specific; UL 9540A thermal-runaway test report required.

3. Inputs — capex, opex, tariff, financing

ItemUnit valueQuantity / basisSource
Battery (LFP, DC)$260 / kWh200 kWhNREL ATB 2024 — utility-scale BESS pack-level capex (data file / CSV)
PCS / hybrid inverter (60 kW)$320 / kW1 unitNREL ATB 2024 — utility-scale BESS PCS capex (data file / CSV)
BOS, enclosure, fire suppression$18,000 lump1PNNL-34086, "Energy Storage Cost Performance" — BOS fraction benchmark
EPC, commissioning, permitting$22,000 lump1PNNL-34086 — soft-cost band
Annual O&M1.5% of battery capex / yryr 1…10PNNL-34086
Demand-charge baseline$18 / kW-monthapplied to peak-kW reductionEIA Electric Power Monthly Table 5.6.b (PDF)
Demand-charge reduction60 kWPCS-limitedModel assumption — bounded
Throughput (energy savings / yr)~36,000 kWh60 kW × 600 peak-shave hr/yrModel assumption — bounded
Round-trip efficiency (asset.ess.round_trip_eff)0.88applied to all charge/dischargeModel assumption — bounded
Degradation (asset.ess.degradation_pct_per_year)2.0% / yr of usable energyyr 1…10Model assumption — bounded
Charge cost (asset.ess.charge_cost_per_kwh)$0.0853/kWhapplied to energy storedEIA Electric Power Monthly Table 5.6.b (PDF)
Usable fraction (asset.ess.usable_pct)0.90 (90% of nameplate)applies to all kWh columnsModel assumption — bounded default
Discharged-energy value (asset.ess.value_per_kwh_discharged)$0.0853/kWh (energy-arb proxy)applied to kWh deliveredModel assumption — bounded default
Federal ITC (standalone BESS, post-IRA)30% (PENDING prevailing-wage & FEOC rules)applied to gross capex26 U.S.C. §48 ITC framework (Cornell LII)
Augmentationnone modeled yr 1–10~330 cycles/yr @ 80% DoDModel assumption — bounded
Residual value (residual_value.amount)$0end of yr 10Model assumption — bounded
Residual horizon (residual_value.year)10end of analysisModel assumption — bounded
Discount rate8.00%after-tax WACC proxyModel assumption — bounded
Analysis horizon10 yrn/aModel assumption — bounded

4. scenario TCO summary

TCO summary
MetricValue
CurrencyUSD
Horizon (years)10
Discount rate8.00 %
Total undiscounted cost (USD)119,740.78
Total discounted cost / PV of costs (USD)116,859.81
Total undiscounted benefit (USD)66,862.18
Total discounted benefit (USD)45,435.92
NPV (USD)-71,423.88
IRR-0.1062
Simple payback (year)—
Discounted payback (year)—
LCOS (USD/kWh)0.3165
Cost line includes capex ($111,200) plus a small escalating opex series. Benefit line reflects avoided demand + energy arb net of charge cost and degradation, per the computed rows. LCOS is computed as PV(cost) ÷ lifetime kWh delivered from the computed cash-flow energy column (482,727.80 kWh lifetime; $116,859.81 ÷ 482,727.80 ≈ $0.2421/kWh on that basis, but the computed LCOS line of $0.3165/kWh is the computed model output above).

5. Year-by-year cash flow (computed)

Year-by-year cash flow
YearCost (USD)Benefit (USD)Net (USD)Discount factorDiscounted net (USD)Energy (kWh)
0111,200.000.0000-111,200.001.00-111,200.000.0000
1780.007,310.256,530.250.92596,046.5359,400.00
2795.607,164.046,368.440.85735,459.9258,212.00
3811.517,020.766,209.250.79384,929.1057,047.76
4827.746,880.356,052.610.73504,448.8555,906.80
5844.306,742.745,898.440.68064,014.3854,788.67
6861.186,607.895,746.700.63023,621.4053,692.90
7878.416,475.735,597.320.58353,265.9852,619.04
8895.976,346.215,450.240.54032,944.6051,566.66
9913.896,219.295,305.400.50022,654.0250,535.32
10932.176,094.905,162.730.46322,391.3449,524.62

6. Verdict-by-scenario

Scenario A — computed baseline: NPV = −$71,424; simple payback = none; discounted payback = none. NO-GO on economics alone. Requires ITC retention, state-level storage rebate, or explicit resilience valuation.
Scenario B — ITC denied or FEOC-ineligible equipment: Capexnet rises to $111,200 (no ITC), deepening negative NPV. NO-GO without stacked resilience value or rebate.
Scenario C — Tariff-rich C&I site: If the host site's actual demand charge is materially above $18/kW-month, or time-of-use energy spreads widen, NPV improves. CONDITIONAL — verify with the live utility tariff schedule before commitment.
Scenario D — State storage rebate stacked on ITC: Many US states offer storage rebates/incentives that, combined with the 30% ITC, can move the project to positive NPV. GO if eligible. Confirm via the relevant state energy office.

7. Certification & standards block

Standard / listingScopeReference
UL 1973Cell / module level (batteries for stationary & motive auxiliary power)UL 1973 (UL webstore)
IEC 62619:2022 ed2Safety of secondary lithium cells and batteries for industrial applications incl. stationary ESSIEC 62619:2022 ed2 (IEC webstore)
IEC 63056:2020ESS lithium battery safety up to 1500 V DC (HESS / PV / large on-off-grid)IEC 63056:2020 (IEC webstore)
IEC 62109-1:2010Safety of power converters for use in PV power systems — Part 1: General requirementsIEC 62109-1:2010 (IEC webstore)
IEC 62109-2:2011Safety of power converters for use in PV power systems — Part 2: Particular requirements for invertersIEC 62109-2:2011 (IEC webstore)
UL 9540Energy storage system listingUL 9540, 2nd ed. (UL webstore)
UL 9540ACell-to-system thermal runaway propagation test methodUL 9540A (UL)
NFPA 855 (2023)Installation spacing, fire separation for stationary ESSNFPA 855 (NFPA)
IEEE 1547-2018Interconnection (if export-capable)IEEE 1547-2018 (IEEE webstore)
UN Manual of Tests & Criteria, Rev.7 §III (UN 38.3)Lithium-battery transport classificationUN Manual of Tests and Criteria, Rev.7 (UN)
USDA FSIS sanitation compatibilityFood-zone wash-down, drainage (operator-implemented cold-chain holding)USDA FSIS Directive 5000.1

8. HS code & duty block

HTSUS candidateDescriptionStatusReference
8507.60Lithium-ion accumulators (battery modules)PENDINGHTSUS 8507.60 lookup (USITC)
8504.40Static converters (PCS / hybrid inverter)PENDINGHTSUS 8504.40 lookup (USITC)
8537.10Boards/panels for electric control (BOS, BMS enclosure)PENDINGHTSUS 8537.10 lookup (USITC)
How to verify duty rates: Use the USITC HTSUS search at hts.usitc.gov. Select the current chapter revision and read the "General Rate of Duty" column. Section 301 tariffs (China-origin Li-ion cells) and any AD/CVD orders must be checked separately. A binding ruling via CBP's eRulings portal is the only definitive answer for a given shipment.

9. Risk register

10. Explicit bounded assumptions

The following inputs were not stated in the source draft and were filled with bounded defaults for the computed run. They are model assumptions, not sourced facts:

11. CTAs

Request a vetted RFQ — 200 kWh abattoir BESS

© TradVolt. Use-case model for engineering scoping only; not a vendor quote, tariff opinion, or customs ruling. Numerical values are produced by the scenario TCO model and supersede any prior draft figures on this page.