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Electrical Power Engineer Jobs in Colorado (NOW HIRING)

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Electrical Power Engineer information

See Colorado salary details

$74.7K

$139.6K

$202.9K

How much do electrical power engineer jobs pay per year?

As of Sep 13, 2026, the average yearly pay for electrical power engineer in Colorado is $139,593.00, according to ZipRecruiter salary data. Most workers in this role earn between $88,300.00 and $184,000.00 per year, depending on experience, location, and employer.

What is an electrical power engineer?

An electrical power engineer is responsible for power system management. As an electrical power engineer, your job is to ensure the efficient functionality of the electrical power grid. Your duties include designing components for the grid, such as generators, transformers, circuit breakers, and transmission lines. You ensure that power stations distribute power to customers efficiently, and manage different types of power systems, such as alternating and direct current. A career as an electrical power engineer requires formal qualifications and education: at least a bachelor’s degree in electrical engineering, state licensure, and experience with power systems.

What does an electrical power engineer do?

An Electrical Power Engineer designs, develops, tests, and supervises the installation of electrical systems, particularly those involved in generating, transmitting, and distributing electricity. They work on power plants, substations, and the electrical grid to ensure reliable and efficient delivery of electricity. Their responsibilities may include improving energy efficiency, integrating renewable energy sources, and troubleshooting system failures. Electrical Power Engineers also ensure compliance with safety and environmental regulations. They often collaborate with other engineers and professionals to complete large-scale infrastructure projects.

What are the key skills and qualifications needed to thrive as an electrical power engineer, and why are they important?

To thrive as an Electrical Power Engineer, you need a solid background in electrical engineering principles, power systems analysis, and a bachelor's degree in electrical engineering or a related field. Familiarity with industry-standard tools such as AutoCAD, ETAP, MATLAB, and relevant certifications like Professional Engineer (PE) licensure are often required. Strong problem-solving abilities, teamwork, and effective communication skills set outstanding professionals apart in this field. These skills and qualifications are crucial to ensuring safe, efficient, and reliable design, operation, and maintenance of electrical power systems.

What are some common challenges electrical power engineers face when working on large-scale infrastructure projects?

Electrical Power Engineers often encounter challenges related to coordinating with multidisciplinary teams, managing project timelines, and ensuring compliance with safety and regulatory standards. Large-scale projects frequently require balancing technical requirements with budget constraints and adapting to evolving technologies or unforeseen site conditions. Effective communication skills and flexibility are essential for resolving issues that may arise during design, installation, or commissioning phases.

What is the difference between Electrical Power Engineer vs Electrical Engineer?

AspectElectrical Power EngineerElectrical Engineer
CredentialsBachelor's degree in electrical engineering, often with specialization in power systemsBachelor's degree in electrical engineering, general focus
Work EnvironmentPower plants, utility companies, renewable energy sitesConstruction sites, manufacturing, electronics design
Industry UsagePrimarily in power generation, transmission, and distributionBroad industry including electronics, automation, and communications

Electrical Power Engineers focus on power systems, generation, and distribution, working mainly in energy-related sectors. Electrical Engineers have a broader scope, working across various electrical systems and industries. Both roles require similar foundational credentials but differ in specialization and work environment.

What are the most commonly searched types of Electrical Power Engineer jobs in Colorado?

The most popular types of Electrical Power Engineer jobs in Colorado are:

What are popular job titles related to Electrical Power Engineer jobs in CO?

For Electrical Power Engineer jobs in CO, the most frequently searched job titles are:

Infographic showing various Electrical Power Engineer job openings in Colorado as of August 2026, with employment types broken down into 56% Full Time, and 44% Part Time. Highlights an 50% In-person, and 50% Hybrid job distribution, with an average salary of $139,593 per year, or $67.1 per hour.

Avionics & Electrical Power Engineer

Denver, CO β€’ On-site

Other

Posted 7 days ago


Job description

About this position

Parallax Space is building critical mission infrastructure to enable rapid, reliable, and scalable access to space. We partner with commercial, civil, and national security customers to deliver high-performance satellite components, integrated payload systems, and mission capabilities that close critical gaps in modern space architecture.

Our model combines advanced engineering, mission execution, and scalable manufacturing to deliver high-TRL products and flight-ready systems at speed.

We are building the infrastructure backbone for the next generation of space systems.

Position Overview

Parallax Space is seeking a Avionics & Electrical Power Engineer to design, develop, integrate, and qualify electrical power systems for spacecraft, payloads, and mission hardware. This is a mid-to-senior-level role with direct ownership of power architecture, power distribution, and battery design across the full product lifecycle.

The engineer will translate mission and product requirements into reliable, manufacturable electrical power systems encompassing generation, energy storage, regulation, conversion, protection, switching, and distribution. The role will own power budgets and operating profiles; size batteries and power-distribution hardware; develop and review schematics, interfaces, and analyses; and support hardware through procurement, build, integration, environmental test, delivery, and mission operations.

The successful candidate will combine strong spacecraft power-system fundamentals with practical hardware judgment. This individual must be comfortable moving between system-level trades and detailed design, working directly with multidisciplinary engineering teams and suppliers, troubleshooting integrated hardware, and making timely decisions in a fast-paced development environment.

The position may be filled at the mid-level or senior level based on the candidate’s experience, technical depth, and demonstrated scope of ownership.

Key Responsibilities Electrical Power System Architecture

Develop end-to-end electrical power system architectures for spacecraft, payloads, and mission hardwareTranslate mission requirements and operational concepts into power-generation, storage, conversion, distribution, and protection requirementsCreate and maintain power budgets, energy balances, peak-load assessments, mode-based load profiles, efficiency estimates, and system marginsSize solar-array interfaces, batteries, power converters, regulators, distribution channels, harnesses, protection devices, and related hardwarePerform architecture trades addressing regulated and unregulated buses, voltage selection, redundancy, fault tolerance, scalability, recurring cost, and mission lifeDefine and control electrical interfaces, grounding and bonding approaches, power-quality requirements, and compatibility across subsystemsSupport system design reviews and clearly communicate architecture decisions, margins, assumptions, and technical risks

Power Distribution & Conversion

Design and develop power distribution units, power conditioning and distribution units, electronic power systems, and related spacecraft power electronicsDefine load-switching, current-limiting, inrush-control, overvoltage, undervoltage, short-circuit, reverse‑polarity, and fault‑containment strategiesDevelop or evaluate DC‑DC converters, point‑of‑load regulation, battery charge and discharge electronics, bus regulation, and power switching circuitsEstablish channel allocation, load shedding, safe‑state behavior, redundancy, telemetry, command, and fault‑response requirementsCreate and review schematics, electrical block diagrams, interface‑control documents, wiring diagrams, component selections, and printed circuit board layoutsEvaluate power integrity, conducted emissions and susceptibility, grounding, isolation, transient response, ripple, stability, efficiency, and thermal performancePartner with avionics, flight software, systems, and mission operations teams to implement power control, monitoring, autonomy, and fault management

Battery & Energy Storage Design

Lead battery architecture, cell selection, pack sizing, configuration, and performance assessment for spacecraft and payload applicationsDevelop battery requirements addressing energy, power, voltage, depth of discharge, cycle life, calendar life, radiation, temperature, storage, and mission durationDesign or oversee cell balancing, state‑of‑charge monitoring, charge control, protection, fusing, isolation, telemetry, and battery management functionsPerform charge and discharge modeling, capacity and degradation analysis, duty‑cycle assessment, fault analysis, and operating‑margin evaluationCoordinate battery electrical, thermal, mechanical, safety, handling, shipping, storage, and integration requirements across the product teamEvaluate cells, modules, battery assemblies, and suppliers using test data, heritage, qualification status, manufacturability, availability, and mission riskDevelop battery development, screening, acceptance, qualification, and life‑test plans in coordination with test and mission assurance teams

Analysis, Reliability & Technical Documentation

Perform circuit analysis, worst‑case analysis, component derating, tolerance analysis, efficiency assessment, thermal dissipation analysis, and electrical stress evaluationContribute to failure modes and effects analysis, fault‑tree analysis, reliability assessments, hazard analyses, and single‑point‑failure reviewsSelect electrical and electronic parts appropriate for the mission environment, availability needs, producibility, and program risk postureMaintain requirements, calculations, models, design descriptions, interface definitions, test procedures, reports, and verification evidence under configuration controlEnsure designs comply with applicable internal standards, customer requirements, workmanship expectations, and mission‑assurance practicesIdentify technical risks early and develop practical mitigation, development‑test, qualification, or redesign plans

Hardware Development & Production Readiness

Support hardware development from breadboard and engineering models through qualification and flight productionPartner with mechanical, thermal, systems, avionics, software, manufacturing, quality, and supply chain teams throughout the design lifecycleApply design‑for‑manufacturing, design‑for‑test, design‑to‑cost, modularity, and component‑availability principles to power hardwareGenerate and release engineering drawings, bills of material, specifications, test requirements, and manufacturing documentationSupport supplier selection, technical evaluations, design reviews, source inspections, first‑article builds, and issue resolutionInvestigate nonconformances and failures, perform root‑cause analysis, and implement corrective actions that improve reliability and yieldSupport configuration changes and product improvements while protecting qualified design baselines and customer commitments

Integration, Test & Qualification

Develop verification plans and procedures for power‑system functional, performance, fault‑response, efficiency, stability, and margin testingDefine electrical ground support equipment, battery simulators, solar‑array simulators, loads, instrumentation, and automated test needsSupport board‑, unit‑, subsystem‑, and vehicle‑level integration and test activitiesLead troubleshooting of power anomalies using laboratory instrumentation, telemetry, software data, schematics, and structured root‑cause methodsSupport environmental qualification and acceptance testing including thermal vacuum, vibration, shock, electromagnetic compatibility, and mission‑representative cyclingAnalyze test results, document compliance, disposition anomalies, and close verification evidenceProvide technical support during delivery, launch‑site processing, commissioning, and on‑orbit operations as required

Cross‑Functional & Customer Execution

Work closely with program leadership to maintain credible technical plans, schedules, estimates, and resource requirementsParticipate in customer meetings, design reviews, technical interchange meetings, and proposal developmentTranslate customer needs into executable power‑system solutions while maintaining clear control of scope, interfaces, assumptions, and riskSupport make, buy, or partner decisions and technical management of external power‑system and battery suppliersMentor junior engineers and contribute to engineering standards, reusable designs, analysis tools, and lessons learnedCommunicate technical status, tradeoffs, risks, and decisions clearly to engineering teams, leadership, customers, and suppliers

Qualifications Required Qualifications
  • Bachelor’s degree in Electrical Engineering, Aerospace Engineering, Computer Engineering, or a related technical field
  • 5+ years of experience designing or developing electrical power systems, power electronics, batteries, or related high‑reliability hardware
  • Experience with spacecraft, satellite, payload, aerospace, defense, or other mission‑critical electrical systems
  • Demonstrated understanding of electrical power architecture, power distribution, conversion, regulation, switching, protection, and fault management
  • Hands‑on experience with battery sizing, cell or pack selection, charging, discharging, protection, performance analysis, and integration
  • Experience developing power budgets, load profiles, energy balances, electrical interfaces, and system‑level trade studies
  • Experience creating or reviewing schematics, component selections, printed circuit board layouts, wiring diagrams, and electrical design documentation
  • Experience performing circuit analysis, worst‑case analysis, derating, tolerance analysis, efficiency assessment, and electrical troubleshooting
  • Experience supporting hardware through design reviews, build, integration, test, qualification, and delivery
  • Proficiency with laboratory equipment such as power supplies, electronic loads, oscilloscopes, multimeters, data‑acquisition systems, and power analyzers
  • Strong written and verbal communication skills and the ability to operate effectively across multidisciplinary teams
  • Ability to work hands‑on in a fast‑paced development and production environment
  • Ability to obtain and maintain a U.S. security clearance
Preferred Qualifications
  • 8+ years of directly relevant experience for consideration at the senior level
  • Direct experience designing spacecraft electrical power systems, power distribution units, power conditioning and distribution units, or battery systems
  • Experience with lithium–ion spacecraft batteries, battery management systems, cell screening, life testing, and safety controls
  • Experience designing DC‑DC converters, regulated or unregulated power buses, solid‑state power controllers, load switches, or fault‑protection circuits
  • Experience with analog circuit design, mixed‑signal electronics, embedded control, telemetry, or FPGA‑and microcontroller‑based power hardware
  • Familiarity with radiation effects, parts derating, destructive physical analysis, electrical overstress, and space‑grade parts selection
  • Experience with electromagnetic compatibility, grounding and bonding, conducted susceptibility, conducted emissions, and power integrity
  • Experience with SPICE, MATLAB/Simulink, Python, electrical CAD, PCB design tools, requirements‑management tools, or equivalent engineering software
  • Experience with AS9100, configuration management, nonconformance disposition, root‑cause analysis, and aerospace qualification practices
  • Experience transitioning power hardware from development into repeatable production
  • Experience with national security space, DoD, Space Force, SDA, NASA, or commercial satellite programs
  • Active U.S. security clearance
  • Master’s degree in Electrical Engineering or a related technical discipline
Core Competencies

Power Systems EngineeringBattery DesignPower ElectronicsHardware OwnershipAnalytical RigorDesign for ManufacturingTroubleshootingTechnical Judgment

Why Join Parallax Space

Join a team building critical infrastructure for the future of space. At Parallax Space, you will work on real hardware, real missions, and meaningful national‑scale challenges alongside a high‑performing team of engineers, operators, and builders.

Compliance

Parallax Space is an equal opportunity employer. Employment decisions are based on merit, qualifications, and business needs. Certain positions may require eligibility to access export‑controlled information under ITAR/EAR regulations and/or the ability to obtain a U.S. security clearance.

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