Head-to-Head Technical Specification Matrix

Specification New East Solar Energy (Cambodia) CoLtd New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10Phono Solar Technology Co Ltd Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB
Manufacturer Brand New East Solar Energy (Cambodia) CoLtdPhono Solar Technology Co Ltd
Model Designation New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB
Rated Power (STC Pnom) 600 Wp600 Wp
Module Efficiency 23.44%23.44%
Cell Technology Mono-c-SiMono-c-Si
Bifacial Architecture MonofacialMonofacial
Voltage at Pmax (Vmp) 43.60 V45.20 V
Current at Pmax (Imp) 13.77 A13.28 A
Open-Circuit Voltage (Voc) 52.30 V53.40 V
Short-Circuit Current (Isc) 14.59 A13.90 A
Power Temp. Coefficient (mu_Pnom) -0.408 %/°C-0.293 %/°C
Voltage Temp. Coefficient (mu_Voc) -163.5 mV/°C-120.2 mV/°C
Dimensions (L x W) ——
Weight ——
Product Workmanship Warranty 15 Years15 Years
Linear Performance Warranty 30 Years30 Years
Solerz Heuristics Engine

Deterministic Engineering Verdicts: New East Solar Energy (Cambodia) CoLtd New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10 vs Phono Solar Technology Co Ltd Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB

Cross-evaluating physical semiconductor behavior, thermal coefficients, balance-of-system footprint, and electrical safety under international engineering standards.

Electrical & String Sizing NEC 690.7 Safety

Extreme Cold Voc Surge & Max String Sizing

Under extreme winter design temperatures (-15°C ambient), open-circuit voltage surges by up to 12.5% due to the negative temperature coefficient of silicon PN junctions. Under a standard 1,000V DC system limit, Phono Solar Technology Co Ltd Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB safely permits 17 modules per string compared to 16 modules for the tighter models, reducing overall DC home-run combiner wiring and balance-of-system cost by up to 5.9%.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 58.8V (16 mods/str)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 58.2V (17 mods/str) [Winner]
Engineering Rule: Voc(cold) = Voc_STC + [mu_Voc_mV * (T_cold - 25°C) / 1000]
Thermal Dynamics Thermal Yield

Midday Hot-Climate Power Retention (65°C Cell)

At peak midday summer operation with a cell junction temperature of 65°C (40°C above standard STC 25°C), thermal degradation causes significant output reduction. Phono Solar Technology Co Ltd Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB maintains 88.3% of its nameplate power (-0.293%/°C) versus 83.7% on less thermally resilient modules. In tropical, desert, or hot rooftop climates (>35°C ambient), this thermal gap accounts for a 4.6% net annual kWh yield variance.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 502.1W (83.7% left)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 529.7W (88.3% left) [Winner]
Engineering Rule: P_hot = P_stc * [1 + (mu_Pnom_% * (T_cell - 25°C) / 100)]
Lifetime Degradation 25-Year LCOE

25-Year Lifecycle Output & LID/LeTID Retention

Accounting for Light-Induced Degradation (LID) and Light-and-elevated-Temperature-Induced Degradation (LeTID), New East Solar Energy (Cambodia) CoLtd New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10 preserves 84.8% of original rated power at Year 25 (0.55%/yr degradation) compared to 84.8% on conventional models. Over a standard 25-year asset lifecycle for a 10 kW residential array, this creates an incremental generation delta of +0 MWh of clean electricity.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 84.8% (Yr25) / 331.3 MWh
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 84.8% (Yr25) / 331.3 MWh
Engineering Rule: Yield(Yr25) = 100% - [FirstYearDeg% + 24 * AnnualDeg%]
Bifacial Performance Albedo Harvest

Bifacial Rear-Side Gain over Reflective Substrates

When deployed over reflective substrates (such as light gravel, white TPO commercial membrane roofs, or snow with 35% albedo), rear-side photon absorption provides significant boost. New East Solar Energy (Cambodia) CoLtd New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10 yields an effective output of 600W (+0% gain) thanks to a 80% bifaciality factor, providing higher energy density per installed structure.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 600W (+0% rear)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 600W (+0% rear)
Engineering Rule: P_effective = P_stc * [1 + (Albedo * BifacialityFactor * ViewFactor)]
Electrical & Cabling I²R Efficiency

DC String Cable Ohm Heating Loss (40m Run)

Due to Joule heating loss ($P = I^2 R$), operating current (Imp) drastically alters DC cable efficiency over a standard 40m array loop ($4\text{ mm}^2$ / 12 AWG copper). Phono Solar Technology Co Ltd Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB operates at 13.28A, dissipating only 61.7W (1.03% of string power), while high-current alternatives with large 210mm wafers dissipate 66.4W, frequently mandating up-sizing to thicker $6\text{ mm}^2$ or 0\text{ mm}^2$ wiring to prevent thermal throttling.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 66.4W loss (13.77A Imp)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 61.7W loss (13.28A Imp) [Winner]
Engineering Rule: P_loss = Imp² * (2 * Length * rho / Area)
Safety & Protection NEC 690.8/9 Code

Maximum Series Fuse & OCPD String Protection

Under NEC 690.8/690.9 overcurrent protection rules, strings require a continuous duty multiplier of .5625 \times I_{sc}$. New East Solar Energy (Cambodia) CoLtd New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10 draws a lower short-circuit current of 14.59A, qualifying for standard 25A fuses, while high-current modules push OCPD requirements to 25A. Lower fuse ratings lower combiner enclosure thermal buildup and reduce potential arc flash incident energy.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 25A OCPD (Isc: 14.59A)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 25A OCPD (Isc: 13.9A)
Engineering Rule: Fuse_Rating = Isc * 1.25 (Continuous) * 1.25 (Over-irradiance)
Mechanical & Structural Structural Load

5,400 Pa Heavy Snow/Wind Surface Deflection Force

Under an international standard 5,400 Pa heavy snow/wind load, the aggregate downward force on New East Solar Energy (Cambodia) CoLtd New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10 is 10800 N (1101 kg equivalent) due to its compact 2 m² footprint. Larger oversized utility format panels endure up to 10800 N, creating severe center-span glass deflection, micro-cracking risks, and mandating 6-clamp mounting profiles.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 10800 N (1101 kg load)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 10800 N (1101 kg load)
Engineering Rule: TotalForce (N) = TestPressure (5400 Pa) * SurfaceArea (L * W)
Balance of System (BOS) BOS Cost Optimization

10 kW Array Roof Footprint & Racking BOS Efficiency

To construct a nominal 10 kW DC solar array, New East Solar Energy (Cambodia) CoLtd New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10 requires only 17 modules occupying 34 m² of roof space. By contrast, lower efficiency models require up to 17 modules (34 m²), directly increasing mounting rail lengths, roof penetration flashings, MLPE optimizers, and installation labor by 0%.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 34 m² (17 panels)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 34 m² (17 panels)
Engineering Rule: ArrayArea = Ceil(10kW / Pnom) * (Module_L * Module_W)
Safety & Protection Hot-Spot Immunity

Hot-Spot Thermal Stress & Bypass Diode Partitioning

Under localized partial tree shading or bird droppings, shadowed cells are forced into reverse bias, dissipating power as localized heat. Phono Solar Technology Co Ltd Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB incorporates a 24 half-cut cell architecture with 3 Schottky bypass diodes, cutting cell-level current in half and reducing resistive dissipation by 75% during partial shading events to prevent EVA encapsulant browning and thermal cell cleavage.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 72 cells / 3 diodes (Full)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 24 cells / 3 diodes (Full) [Winner]
Engineering Rule: P_dissipated = (I_string / Branches)² * R_internal * ShadedCells
Irradiance & Diffuse Light Low-Light Yield

Low-Light & Diffuse Irradiance Retention (200 W/m²)

Under overcast skies, dawn, dusk, or diffuse winter light conditions ($200\text{ W/m}^2$), parasitic shunt resistance determines relative efficiency retention. New East Solar Energy (Cambodia) CoLtd New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10 maintains 93.5% of its rated conversion efficiency (operating at 21.92% under low irradiance) compared to 93.5% for standard cells. Ideal for northern latitudes with high cloud cover frequencies (e.g. Northern Europe, UK, Pacific Northwest).

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 93.5% retention (21.92% eff)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 93.5% retention (21.92% eff)
Engineering Rule: Eff_relative(200W) = Eff(STC) * [1 - (V_oc_drop + I_shunt_loss)]
Electrical & MLPE Compatibility MLPE Pairing

Microinverter & MLPE DC/AC Clipping Compatibility

Pairing modules with module-level power electronics (MLPE, such as Enphase or Hoymiles microinverters) requires balancing DC/AC clipping ratio and MPPT current limits (typically 12.5A~14A). New East Solar Energy (Cambodia) CoLtd New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10 pairs with an optimal DC/AC ratio of 1.82 and 13.77A operating current, eliminating thermal clipping bottleneck while maximizing inverter capacity factor.

Quantitative Metrics:
  • New East Solar Energy (Cambodia) CoLtd NESE600-72THB-M10: 1.82x DC/AC (13.77A Imp)
  • Phono Solar Technology Co Ltd PS600M8GFH-24/TNHB: 1.82x DC/AC (13.28A Imp)
Engineering Rule: DC/AC_Ratio = P_nom / P_ac_max; Current_Margin = I_mppt_max - I_mp