Services

Our Services

Complete range of electrical and renewable energy services

Detailed service overview

DOWBUSH energo delivers a full-cycle energy service model: from technical audit and engineering design to commissioning and long-term maintenance. We support industrial, agricultural, commercial, and municipal facilities where electrical reliability, predictable budgets, and standards compliance are critical.

Our execution model is engineering-first. We define technical requirements, build a practical roadmap, align milestones, and document scope and responsibilities before field work starts. This gives customers measurable outcomes instead of fragmented tasks: uptime stability, safety, energy efficiency, and controlled lifecycle costs.

Service categories and project scope

Substation construction and reconstruction

We design and build MV/LV substation infrastructure for both greenfield and operating facilities. Scope includes load studies, transformer selection, switchgear architecture, and protection logic. For reconstruction projects, we phase cutovers to reduce downtime and complete commissioning tests before handover.

Electrical installation and equipment connection

Our teams install 0.4-35 kV cable routes, connect transformers, and integrate panel and distribution equipment under approved electrical schemes. Every stage is quality-controlled and documented. Final delivery includes testing protocols, protection checks, and startup validation for safe operation.

Grid modernization and efficiency upgrades

We modernize aging electrical systems to reduce technical losses, increase network capacity, and support new load profiles. Projects may include smart monitoring, dispatch integration, and remote diagnostics. The business result is practical: fewer incidents, better power quality, and lower operating costs.

Import supply and logistics support

We supply transformer and power equipment with full commercial and technical coordination: specification alignment, document package, logistics, and warranty coverage. For cross-border deliveries, we synchronize manufacturing and transport windows and support customs and receiving procedures.

Maintenance, diagnostics, and repair

We provide preventive maintenance, condition diagnostics, and corrective repair with SLA-based response options. Service programs are tailored to criticality and production profile. This reduces emergency outages and protects equipment lifecycle performance over the long term.

Key delivery advantages

Single accountable contractor

Design, supply, installation, and service are delivered under one responsibility model with fewer handover risks.

Predictable budget control

We define scope by stage, model expected costs, and prioritize investments by measurable technical impact.

Reduced production downtime

Cutovers and commissioning windows are planned to minimize disruption to core operations.

Compliance-ready delivery

Engineering decisions are aligned with applicable standards and safety requirements for smoother acceptance.

Indicative pricing and timeline structure

PackageScopeTimelineIndicative budget
Technical audit packageSite survey, load profile analysis, modernization roadmap and risk notes5-10 business daysfrom UAH 40,000
Installation and connection packageCable works, equipment installation, commissioning, and acceptance test protocols2-6 weeksfrom UAH 180,000
Turnkey delivery packageEngineering design, supply, installation, startup, and operator handover support1-4 monthsfrom UAH 900,000

Pricing is indicative and depends on voltage class, configuration, and logistics conditions.

Delivery model comparison

CriterionBasicStandardTurnkey
Integration levelSingle task execution on requestMultiple stages in one coordinated projectEnd-to-end delivery under one owner
Risk managementBaseline controlsRisk plan for major project stagesAdvanced controls with fallback scenarios
Documentation and reportingMinimum required handover setComplete set for executed scopeComplete set plus operational roadmap
Business impactLocal improvementSystem-level reliability increaseMaximum control of downtime and energy cost

Detailed practical deep dive

Integrated Energy Services

Integrated Energy Services should be treated as an investment decision, not just a single purchase event. In the context of industrial, municipal, and commercial facilities that need stable power quality and predictable project governance, teams need to define reliability, safety, and delivery objectives before execution starts. In practice, technical director, chief power engineer, procurement lead, and HSE management align on measurable success criteria, document critical constraints, and assign ownership boundaries that prevent late confusion. This discipline turns a potentially reactive project into a controlled program with predictable decision gates and less downstream rework.

The technical execution model has to stay explicit from day one. A practical scope includes audit, engineering design, procurement, installation, commissioning, and service support under one accountable team. A realistic planning window is 2 to 16 weeks depending on voltage level, logistics, and shutdown window complexity. Before field work begins, teams should lock quality checkpoints, switching sequence assumptions, and final acceptance deliverables. When this preparation is done properly, engineering and operations can execute with fewer surprises, while project leadership gets transparent timeline visibility instead of optimistic assumptions that collapse during commissioning.

Risk control is usually the biggest determinant of schedule confidence. Typical threats in this area are multi-contractor handover gaps, undocumented scope growth, and unplanned production downtime. The mitigation baseline should combine structured governance and operational readiness: structured handover protocols, test documentation, operator training, and escalation pathways. Teams should also validate compatibility with existing infrastructure, define fallback scenarios, and make escalation ownership unambiguous. Projects with this level of rigor usually avoid cascading delays and costly corrections that appear when decisions are postponed until the final weeks.

Commercial decisions should be based on lifecycle logic rather than headline price only. For this topic, the economic frame is CAPEX versus five-year OPEX with loss reduction, maintenance cadence, and outage-cost assumptions. When this is modeled correctly, owners typically achieve higher network reliability, lower technical losses, and controlled lifecycle maintenance spend. Compliance remains a hard boundary: DSTU, IEC, and local electrical safety obligations required by the asset owner. Treating compliance as a late checklist item often creates avoidable launch friction, while integrating it early improves approval speed and protects long-term operational stability.

Execution quality improves materially when technical, commercial, and operations teams review decisions in one cadence. A practical reference point is a food-processing site that consolidated fragmented contractors into a single execution model. Programs run this way usually end with more than a completed contract: they deliver reusable documentation, maintainable operating routines, and a credible foundation for future capacity expansion without restarting analysis from zero.

Owner-side control checklist

  • Confirm project context: industrial, municipal, and commercial facilities that need stable power quality and predictable project governance.
  • Lock the delivery scope: audit, engineering design, procurement, installation, commissioning, and service support under one accountable team.
  • Validate timeline and major milestones: 2 to 16 weeks depending on voltage level, logistics, and shutdown window complexity.
  • Document primary risks: multi-contractor handover gaps, undocumented scope growth, and unplanned production downtime.
  • Approve execution control model: structured handover protocols, test documentation, operator training, and escalation pathways.
  • Model lifecycle economics: CAPEX versus five-year OPEX with loss reduction, maintenance cadence, and outage-cost assumptions.
  • Verify compliance boundary: DSTU, IEC, and local electrical safety obligations required by the asset owner.
  • Define target outcomes and KPI set: higher network reliability, lower technical losses, and controlled lifecycle maintenance spend.

FAQ

Where should planning start for "Integrated Energy Services"?

Start with a compact technical baseline and measurable business targets. Then lock scope (audit, engineering design, procurement, installation, commissioning, and service support under one accountable team) and timeline assumptions (2 to 16 weeks depending on voltage level, logistics, and shutdown window complexity) before field execution begins. Assign accountable owners early so engineering, procurement, and operations decisions move in one cadence instead of creating late-stage approval bottlenecks.

How do teams reduce delay and rework risk?

The most effective method is to formalize risk control before execution. For this topic, key threats are multi-contractor handover gaps, undocumented scope growth, and unplanned production downtime. Teams should define quality gates, escalation paths, and stage-transition criteria in writing. Projects that do this upfront typically avoid cascading corrections and commissioning-stage surprises that consume budget and schedule.

What financial model should be used for decision-making?

Use lifecycle economics rather than upfront price only. A practical frame is CAPEX versus five-year OPEX with loss reduction, maintenance cadence, and outage-cost assumptions. This reveals the true impact of the decision on operating expense, outage exposure, and long-horizon reliability. It also makes cross-functional approval easier because technical and financial tradeoffs become transparent and defensible.

15+

Years of experience

500+

Projects

200+

Clients

24

Warranty months