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Remote Advanced Metering Infrastructure Jobs in Utah

Sr. Power Systems Engineer

Salt Lake City, UT ยท On-site +1

$101K - $138K/yr

... and technical infrastructure to support a growing pipeline. Scope will span preliminary and ... SCADA, controls, metering, powerflow topology), high-voltage electrical systems (substations from ...

With over 100 years of experience, we are a pillar of stability in the energy infrastructure ... Remote Monitoring * Collect and evaluate energy, weather, and building automation data on some ...

With over 100 years of experience, we are a pillar of stability in the energy infrastructure ... Remote Monitoring * Collect and evaluate energy, weather, and building automation data on some ...

With over 100 years of experience, we are a pillar of stability in the energy infrastructure ... Remote Monitoring * Collect and evaluate energy, weather, and building automation data on some ...

Title: Sales Ops Data Analyst In Office /Remote: /Hybrid Exempt / Non-exempt Based: Manila ... Collaborate with IT to optimize the performance and scalability of the sales data infrastructure ...

None Potential for Remote Work: ORA_ON_SITE Description SAIC is seeking an exceptional Mechanical ... advanced ballistic missile systems, refurbishing or replacing key infrastructure, and fielding ...

This position is remote eligible for candidates who currently reside in Utah. What You'll Do ... Infrastructure as Code: Work closely with DevOps to ensure testing environments are ephemeral ...

This position is remote eligible for candidates who currently reside in Utah. What You'll Do ... Infrastructure as Code: Work closely with DevOps to ensure testing environments are ephemeral ...

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Remote Advanced Metering Infrastructure information

What is a Remote Advanced Metering Infrastructure (AMI) specialist?

A Remote Advanced Metering Infrastructure (AMI) specialist is a professional who manages, monitors, and troubleshoots advanced metering systems for utilities, typically working remotely. These specialists ensure the accurate collection and transmission of utility usage data, such as electricity, water, or gas, from smart meters to central data systems. They are responsible for maintaining system reliability, resolving connectivity issues, and supporting the integration of new technologies. The role may also involve data analysis, system upgrades, and providing technical support to field staff and customers.

What is the difference between Remote Advanced Metering Infrastructure vs Remote Meter Technician?

AspectRemote Advanced Metering InfrastructureRemote Meter Technician
CredentialsTechnical certifications in networking, electrical systems, or utility technologyElectrical or utility technician certifications, technical training
Work EnvironmentDesign, install, and maintain metering systems remotely or in field officesFieldwork installing, repairing, and maintaining meters on-site
Employer & IndustryUtility companies, smart grid providers, energy firmsUtility companies, energy providers, contractors
Search & Comparison IntentUnderstanding roles in smart grid infrastructureFieldwork responsibilities and technician roles

The main difference is that Remote Advanced Metering Infrastructure specialists focus on designing, deploying, and managing smart metering systems remotely, while Remote Meter Technicians perform hands-on installation and maintenance of meters in the field. Both roles are essential in modern utility operations but differ in their focus and work environment.

What are some common challenges faced by professionals working in Remote Advanced Metering Infrastructure (AMI) roles, and how can they be addressed?

One common challenge in Remote Advanced Metering Infrastructure roles is troubleshooting connectivity issues between smart meters and the central data management system, especially when devices are widely dispersed geographically. Professionals often need to collaborate with field technicians, IT, and utility engineers to diagnose and resolve communication problems efficiently. Staying updated on the latest AMI technologies and cybersecurity practices is also essential, as remote infrastructure can be vulnerable to security risks. Regular training, clear communication protocols, and strong problem-solving skills can help address these challenges and ensure reliable meter data collection.

What are the key skills and qualifications needed to thrive as a Remote Advanced Metering Infrastructure (AMI) Specialist, and why are they important?

To excel as a Remote Advanced Metering Infrastructure (AMI) Specialist, you need a solid background in electrical engineering or IT, experience with meter data management, and knowledge of utility systems. Familiarity with AMI software platforms, SCADA systems, and networking protocols is typically required, along with relevant certifications such as Cisco or CompTIA Network+. Strong problem-solving abilities, attention to detail, and effective communication skills help professionals collaborate with teams and resolve technical issues remotely. These skills ensure accurate data collection, reliable system performance, and efficient utility operations in a dynamic, technology-driven environment.
What are popular job titles related to Remote Advanced Metering Infrastructure jobs in Utah? For Remote Advanced Metering Infrastructure jobs in Utah, the most frequently searched job titles are:
What job categories do people searching Remote Advanced Metering Infrastructure jobs in Utah look for? The top searched job categories for Remote Advanced Metering Infrastructure jobs in Utah are:
What cities in Utah are hiring for Remote Advanced Metering Infrastructure jobs? Cities in Utah with the most Remote Advanced Metering Infrastructure job openings:
Sr. Power Systems Engineer

Sr. Power Systems Engineer

rPlus Energies

Salt Lake City, UT โ€ข On-site, Remote

$101K - $138K/yr

Full-time

Posted 11 days ago


Job description

Company Overview
rPlus is a team of committed energy industry professionals working together to develop large-scale renewable energy generation and electric storage projects in the United States. rPlus is a market leader in the western US with a proven track record of delivering projects to utility and corporate customers on time and on budget. rPlus specializes in bringing projects to market through partnership with the private sector, municipalities, utilities, and industry-leading technology and service providers. Its portfolio consists of a strategic mix of solar, solar plus battery, wind, and pumped storage hydro facilities. rPlus is headquartered in Salt Lake City, Utah and is backed by Gardner Group and Sandbrook Capital.
Position Overview
The Senior Power Systems Engineer will serve a foundational role, functioning as in-house Ownerโ€™s Engineer and technical authority across the Companyโ€™s project pipeline. This role will own the design, engineering and performance capability of utility-scale solar and battery energy storage systems from early development through commercial operations. The position carries equal responsibility for performing key engineering management functions as well as driving continuous improvement and scalability of processes, standards, and technical infrastructure to support a growing pipeline.
Scope will span preliminary and detailed design, DC medium-voltage and AC high-voltage, equipment specifications, design calculations, EPC design review, and due diligence on greenfield and M amp;A project sites. The position carries particular emphasis on system architecture (e.g. SCADA, controls, metering, powerflow topology), high-voltage electrical systems (substations from 69kV up to 500kV, protection amp; controls, metering), and BESS design and integration. A defining responsibility will be ensuring design continuity and clean handoffs across the full project lifecycle, from basis of design through construction submittals to commissioning and operations. The position will report to the Chief Operating Officer and will work cross-functionally with the Development, Procurement, Construction and Asset Management teams, and manage third-party engineering consultants, ownerโ€™s engineers and independent engineers as needed. At any given time, the portfolio is expected to include approximately 3-4 projects actively in consctruction, alongside a broader pipeline in development and pre-constrcution phases.
Responsibilities
Engineering Process amp; Design Standards:
  • Establish and maintain technical design standards, including basis-of-design documents and specifications for use from early development through construction and operations.
  • Develop a formal EPC design-review protocol, including review of design change requests with cost and schedule impact analysis.
  • Support preliminary DC and AC design: substation layout, metering, PV configurations, single-line diagrams, and site output reports.
  • Coordinate Independent Engineer scopes of work; provide technical review of EPC contracts, PPAs, and interconnection agreements.
System Architecture amp; Controls:
  • Review project configurations for commercial and market alignment; e.g. evaluate and guide single-lines and facility configuration to ensure plant design supports intended offtake and market participation strategies from the earliest stages of development.
  • Own SCADA and plant controls architecture across all facilities, specification, design review, integration testing, and post-COD support.
  • Define communication protocols, data acquisition requirements, alarm management, and remote monitoring/control capabilities.
  • Review and approve EPC SCADA designs, ensuring interoperability across inverters, trackers, met stations, BESS controllers, and substation equipment.
High-Voltage Electrical:
  • Provide technical oversight for all HV electrical design: collector substations (up to 500kV), gen-tie lines, switchgear, transformers, protection and controls, and revenue metering.
  • Review single-line and three-line diagrams, protection coordination studies, grounding designs, relay settings, short circuit analysis, load flow studies, and arc flash analysis.
  • Support interconnection processes including system impact and facilities study review; ensure NERC, IEEE, NEC, and NESC compliance.
Battery Energy Storage:
  • Own technical evaluation, specification, and design review of BESS systems: DC architecture, power conversion, thermal management, and fire/life safety.
  • Define owner's requirements for BESS integration with solar and grid interconnection, including dispatch logic, state-of-charge management, and warranty-compliance operating envelopes.
  • Review BESS vendor submittals and EPC integration designs; support commissioning, performance testing, and degradation monitoring.
Construction amp; Coordination:
  • Serve as (or directly oversee) Owner's Engineer function during construction: site visits, QA/QC support, RFI resolution, change order review, and commissioning of HV, SCADA, and BESS systems.
  • Facilitate design meetings, technical workshops, and constructability reviews; track and resolve technical issues across disciplines.
  • Maintain equipment specifications across Development, Pre-Construction, Procurement, and Construction teams; manage OEM relationships for key electrical and BESS components.
Required Qualifications
  • B.S. in Electrical Engineering or related field
  • 7-10 years of experience in utility-scale solar and/or battery energy storage, with direct involvement across multiple project lifecycle stages (development, design, construction, commissioning)
  • Deep technical proficiency in the following: project engineering lifecycle, HV substation design (69kVโ€“500kV), protection and controls, SCADA/plant controls architecture, solar and BESS design and integration, interconnection engineering
  • Experience must include direct involvement with minimum 2 constructed utility-scale ( gt;75 MW) solar and BESS projects or high voltage substations connected to renewable facility
  • Demonstrated experience functioning as or directly supporting an Owner's Engineer
  • Hands-on experience with EPC design review, construction submittals, and commissioning processes
  • Working knowledge of NERC, IEEE, NEC, and NESC standards as applied to generation facilities
  • Ability to translate between commercial objectives and engineering constraints; demonstrated ability to engaging with development, origination, procurement, and construction teams (not just engineering peers)
  • Superior information management and organizational skills
Preferred Qualifications
  • P.E. license (preferred Utah, Idaho, Washington, Arizona, Nevada, California, Oregon)
  • Experience with hybrid or co-located solar-plus-storage configurations and associated market participation structures
  • Experience managing or coordinating third-party engineers (IEs, owner's engineers, specialty consultants)
  • Background in establishing or formalizing engineering processes, standards libraries, or design review protocols within a growing organization
  • Familiarity with WECC and CAISO/EDAM market rules, settlement mechanics, or resource adequacy frameworks