Deployment case study

Bheewandi – 0.225 MW

Last updated 6 June 20265 min read

0.225 MW · Bheewandi · NYUMA · Semi-automatic · 1 robots · saves 32 thousand litres · +8.4 MWh/yr

Semi-AutomaticCapex1 semi-auto robotsNYUMARoof Top

Capacity

0.225 MW

Fleet

1 robots

Deployment

Semi-Automatic

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Bheewandi – 0.225 MW - Solar Panel Cleaning Robot Installation Project by Taypro

Executive summary

The Bheewandi plant is a 0.225 MW ground-mounted utility asset in Maharashtra. NYUMA semi-automatic programme on 0.225 MW—workbook portable count; validate fleet scope with commissioning records. Taypro implemented Semi-automatic waterless cleaning under CAPEX.

Operations report roughly 32 thousand litres of water saved per year, about 8.4 MWh of additional clean generation, and 4 metric tons CO₂ equivalent (site-reported; validate with your SCADA).

Robotic cleaning means scheduled cycles and weather-aware holds—not flooding modules on a daily wash calendar.

Site statistics at a glance

MetricReported value
Nameplate capacity0.225 MW
State / regionMaharashtra
Automatic robots
Semi-automatic robotsNYUMA programme (workbook: 1 unit; validate fleet scope with commissioning records)
Total fleetInspection-led semi-automatic
Robots per MW
Primary systemsNYUMA
Cleaning modeSemi-automatic
ProcurementCAPEX
MonitoringInspection-led plans
Commissioning2023
Water saved~32 thousand litres / year
Generation uplift~8.4 MWh / year
CO₂ equivalent~4 metric tons / year

Fleet design at 0.225 MW

NYUMA semi-automatic programme on 0.225 MW—workbook portable count; validate fleet scope with commissioning records.

One portable on 0.225 MW since 2023.

Operations rhythm with inspection-led accountability

Published weekly block plans and inspection sign-off drive accountability. Technicians own brush care, holds, and dated reschedules when telematics are not the primary layer.

Cleaning cadence: planned portable cycles and weather holds

NYUMA semi-automatic coverage on this site is driven by published weekly block plans, supervisor prioritisation, and inspection sign-off—not continuous daily washing of every hectare. Technicians execute waterless brush cycles when wind, rain, and site conditions are safe; wind holds apply, and passes are skipped or deferred after effective rain when glass is already rinsed.

Seasonal soiling still dictates intensity: busier months concentrate portables on downwind edges, haul-road strings, and blocks with the steepest inverter trends—often comparable in frequency philosophy to the 3–10 cycles per month band used on automatic peers, without implying one robot pass per module per night. See semi-automatic systems and cleaning technology.

Commissioning and handover

Commissioning sequenced high-soiling blocks first, validated geometry and docking or staging, and trained technicians on waterless compliance and hold rules.

What Bheewandi teaches owners at 0.225 MW

One portable on 0.225 MW since 2023. Use the ROI calculator with conservative GWh attribution and utility operations framing.

Lenders should request block-level proof: signed inspection sheets and weekly block plans. Pair 32 thousand litres, 8.4 MWh, and 4 tCO₂e on one assumption set.

Regional soiling at 0.225 MW

Sub-one-megawatt portable. Downwind rows soften in inverter data before drive-by inspections; programmed cleaning with block proof beats episodic tanker washes.

Before Taypro, manual programmes struggled with frequency, water logistics, and auditability on 0.225 MW tables.

Monthly operating calendar

Jan–Feb: review brush wear and cycle plans. Mar–Jun: peak dust—scheduled density toward 6–10 cycles per month class on automatic peers where applicable; not nightly full-plant wash. Monsoon transition: stand down after effective rain. Post-monsoon: re-walk paths after civil or vegetation works.

SCADA correlation

Pair inverter trends with inspection timestamps. If PR stays soft after logged cleans, investigate brush wear, partial coverage, or equipment fault.

Water and finance narrative

Model 32 thousand litres avoided against tanker and wet-wash baselines. Stress-test 8.4 MWh at 50% and 75% attribution before sign-off.

Fleet: NYUMA semi-automatic programme (validate scope with commissioning records)

NYUMA semi-automatic programme on 0.225 MW—workbook portable count; validate fleet scope with commissioning records.

ESG and insurer pack

Include night traffic plans, training records, and sample inspection weeks with water and carbon slides on consistent assumptions.

Procurement checklist

  • Row repeatability map before copying robots/MW from this case study.
  • Manual baseline year for water and labour.
  • Block-level completion proof requirement in contracts.
  • Phase commissioning on highest-soiling blocks first.
  • Read cleaning technology and performance methodology.

Who should benchmark Bheewandi?

Owners with 0.225 MW Maharashtra assets and semi-automatic constraints—not plants copying fleet counts without maps.

How many cycles per month?

Site-specific; commonly roughly 3–10 dry cycles per month, weather permitting—not daily washing of every module.

Seasonal operating calendar

Jan–Feb: review brush wear and cycle plans; validate wind and rain hold rules in NECTYR or inspection logs. Mar–Jun: peak dust—scheduled cycle density increases on priority blocks (weather permitting), often toward the 6–10 cycles per month class for automatic fleets; not nightly coverage of every module. Monsoon transition: stand down or lighten cycles after effective rain; inspection-heavy weeks where appropriate. Post-monsoon: re-walk paths after vegetation or civil works; update block timers before the next approved cleaning window.

Peer benchmarking

Versus Vasai (0.5 MW): micro.

Versus Chandrapur MH: micro.

Browse all projects, mid-scale peers, and tier-2 references.

Bheewandi operations focus

Pair 32 thousand litres with 8.4 MWh at conservative attribution.

Technical committee closing brief for Bheewandi

Attach row maps, inspection samples, and conservative 8.4 MWh / 4 tCO₂e stress tests. 32 thousand litres water avoided should use the same assumptions as generation slides.

Scheduled cycles and weather-aware holds—roughly 3–10 dry cycles per month on automatic peers, weather permitting—not daily plant-wide washing. Read cleaning technology and performance methodology.

Compare peers linked above; request layout review via contact when row maps are preliminary.

Finance workshop agenda

Validate manual baseline; agree PR normalization; review inspection cadence; align ESG water and carbon on one assumption set; budget spares and training through year five.

Operations FAQ

How are cycles scheduled?

Weekly NYUMA block plans and inspection sign-off—not a daily wash of the full plant.

What should lenders review?

Water statistics, inspection sheets, training records, and GWh stress tests at 50% and 75% attribution.

Operations evidence summary

Owners should validate reported water, generation, and carbon statistics with local SCADA and tariffs; pair this 0.225 MW case study with performance methodology, the projects hub, and the ROI calculator. Scheduled cycles and weather-aware holds—not plant-wide daily washing—define Taypro utility programmes.

Compare Soyegaon, Chhayan, and tier-1 peers before copying robot density. Block-level proof—inspection sign-off—belongs in lender packs alongside 32 thousand litres and 8.4 MWh stress tests at fifty and seventy-five percent attribution.

Conclusion

Bheewandi demonstrates 0.225 MW robotic cleaning with reported 32 thousand litres water saved, 0.008400000000000001 GWh, and 4 tCO₂e—validated locally. Use peer links when building procurement packs.

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Share your MW, layout, and cleaning goals — our team will recommend the right robot mix and commercial path.

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Estimate payback

Use directional CAPEX bands and savings for your capacity before a formal RFQ.

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