1

Bridge Power Battery Jobs (NOW HIRING)

Maintenance Coordinator

Lewisburg, TN · On-site

$70K - $90K/yr

Familiarity with the electrical characteristics of energy storage battery box/power battery housing ... Strong cross-cultural communication skills to bridge Minth China HQ and the US local team. * High ...

Senior Operation Specialist

Manteno, IL · On-site

$95K - $110K/yr

Gotion is powered by a leading power battery technology company that provides solutions for ... Acting as a bridge between leadership, internal teams, and external partners * Staying flexible and ...

Power Electronics Engineer

San Bruno, CA

$133K - $158K/yr

Working knowledge of DC/DC and DC/AC converter topologies - buck, boost, flyback, full-bridge ... Familiarity with battery safety standards: UN 38.3, UL 2580, IEC 62133 * Experience with pulsed ...

Systems Integration Engineer

Troy, MI · On-site

$158K/yr

Serving as a bridge between the company, its customers, and vendors, the Systems Integration ... Battery Energy Storage Systems (BESS), Energy Management Systems (EMS), and Power Conversion ...

Showing results 21-40

Bridge Power Battery information

See salary details

$12

$21

$34

How much do bridge power battery jobs pay per hour?

As of Aug 7, 2026, the average hourly pay for bridge power battery in the United States is $21.66, according to ZipRecruiter salary data. Most workers in this role earn between $17.79 and $24.04 per hour, depending on experience, location, and employer.

What is a bridge power battery?

Bridge Power Batteries refer to specialized batteries designed to provide backup or transitional power, often used in industrial or critical infrastructure applications. They serve as a 'bridge' to maintain power supply during outages or while switching between primary power sources. These batteries are engineered for reliability and rapid response, ensuring seamless power continuity. They can be found in sectors like telecommunications, data centers, and utility grids. Their design and chemistry vary depending on the required capacity, duration, and specific application.

What is the difference between Bridge Power Battery vs Battery Technician?

AspectBridge Power BatteryBattery Technician
CredentialsRelevant certifications in battery systems, electrical safetyElectrical or battery-specific certifications, technical training
Work EnvironmentManufacturing plants, renewable energy facilitiesRepair shops, field service, industrial sites
Employer & IndustryBattery manufacturing, energy storage companiesElectronics repair, energy sector

Bridge Power Battery professionals focus on designing, manufacturing, and maintaining large-scale battery systems, often in industrial or renewable energy settings. Battery Technicians typically handle installation, troubleshooting, and repair of batteries in various environments. While both roles require electrical knowledge and certifications, Bridge Power Battery roles are more involved in system development, whereas Battery Technicians focus on hands-on maintenance and repair.

What skills and qualifications are needed to work with bridge power batteries?

To thrive as a Battery Engineer in bridge power systems, you need a strong background in electrical engineering, battery chemistry, and energy storage technologies, often supported by a relevant engineering degree. Experience with battery management systems (BMS), simulation software like MATLAB/Simulink, and certifications such as IEEE or relevant safety standards are commonly required. Problem-solving abilities, attention to detail, and effective teamwork are essential soft skills for this role. These skills ensure the safe, efficient, and reliable design and maintenance of battery systems critical to bridge power infrastructure.

What are common challenges faced by professionals working with bridge power batteries, and how can they be addressed?

Professionals in Bridge Power Battery roles often encounter challenges related to maintaining optimal battery performance and ensuring system reliability. They must regularly monitor battery health, manage energy storage, and address issues such as overheating or capacity degradation. Collaborating closely with engineering and maintenance teams is essential to identify potential problems early and implement preventive measures. Staying updated on the latest advancements in battery technology and following industry best practices can help address these challenges effectively.
More about Bridge Power Battery jobs
Infographic showing various Bridge Power Battery job openings in the United States as of August 2026, with employment types broken down into 87% Full Time, 9% Part Time, 3% Contract, and 1% Nights. Highlights an 92% Physical, 2% Hybrid, and 6% Remote job distribution, with an average salary of $45,055 per year, or $21.7 per hour.

AI Infrastructure Engineer - Emerging Technologies

Cologix, Inc.

Remote

$110K - $144K/yr

Full-time

Re-posted 21 days ago


Job description

Job Summary:
Cologix, Inc. is a leading North America network-neutral interconnection and hyperscale edge data center company. They are seeking an AI Infrastructure Engineer – Emerging Technologies to support the evaluation, design, and development of AI-ready data center infrastructure strategies, bridging emerging AI technologies with practical implementation across various functions.
Responsibilities:
• Support the VP of Technology Engineering & Innovation in evaluating emerging AI infrastructure technologies and future-ready data center strategies.
• Analyze AI workload characteristics including: Training vs. inference workloads, GPU utilization patterns, Dynamic workload fluctuations, Rack-level power variability, Networking and latency requirements.
• Assess implications of AI workload behavior on infrastructure resiliency, scalability, efficiency, and operational design.
• Develop technical recommendations and infrastructure strategies supporting future AI deployments.
• Analyze current and future AI compute platforms including NVIDIA GPU architectures, ARM-based platforms, custom AI accelerators and ASICs, optical networking and switching technologies, and emerging hyperscaler-designed AI chips.
• Evaluate implications of evolving chip architectures on rack density, power consumption, cooling requirements, electrical distribution, mechanical infrastructure, space planning, and future development standards.
• Model current and future AI rack power density trends including existing high-density deployments (50–120 kW), near-term AI deployments (150–300+ kW), and future ultra-dense AI cluster scenarios.
• Assess long-term impacts of emerging chip architectures on energy efficiency and future data center design and development standards.
• Support conceptual and detailed design efforts for AI-ready data center infrastructure.
• Assist in developing long-term infrastructure roadmaps for high-density AI deployments, liquid cooling adoption, modular infrastructure strategies, utility coordination, grid-parallel and microgrid solutions, and future AI campus development.
• Evaluate implications of AI infrastructure evolution on greenfield developments, existing facility retrofits, construction methodologies, scalability, and future campus master planning.
• Collaborate with engineering, development, and construction teams to develop scalable AI-ready infrastructure standards and deployment models.
• Collaborate closely with the Energy Strategy Team to evaluate utility constraints, interconnection requirements, grid limitations, dynamic load fluctuation impacts, power quality and resiliency considerations, and onsite generation and distributed energy solutions.
• Support analysis of grid-parallel and islanded microgrid architectures, fuel cells, Battery Energy Storage Systems (BESS), bridge power solutions, natural gas generation, and renewable integration opportunities.
• Evaluate implications of AI workloads on substation development, transmission planning, utility coordination, and energy efficiency and PUE optimization.
• Assess how future AI compute growth will influence utility planning and power infrastructure strategies.
• Analyze current and emerging thermal management solutions including air cooling, direct-to-chip liquid cooling, immersion cooling, rear-door heat exchangers, and hybrid cooling architectures.
• Assess implications of ultra-high-density AI deployments on mechanical system design, water usage, cooling scalability, heat rejection strategies, thermal resiliency, and future cooling infrastructure standards.
• Evaluate cooling technologies and infrastructure requirements as AI rack densities continue to increase.
• Interface directly with technology vendors, OEMs, utilities, and strategic partners across power generation, UPS systems, electrical infrastructure, cooling technologies, liquid cooling platforms, AI compute infrastructure, and networking and optical interconnect technologies.
• Lead technical assessments of next-generation technologies with respect to reliability, scalability, energy efficiency, sustainability, AI workload performance, construction complexity, and operational resiliency.
• Support proof-of-concept initiatives, pilot deployments, and technology benchmarking efforts.
• Develop executive-level recommendations regarding adoption of emerging AI infrastructure technologies and strategic engineering standards.
• Collaborate with design engineering, construction, operations, energy strategy, procurement, utilities, technology partners, and external engineering firms and consultants.
• Support strategic planning initiatives and executive-level technical presentations.
• Assist in developing future infrastructure standards and innovation roadmaps for AI-enabled data center platforms.
Qualifications:
Required:
• Bachelor's degree in Electrical Engineering, Mechanical Engineering, Computer Engineering, Computer Science, Data Center Engineering, or a related technical discipline.
• 5+ years of experience in one or more of the following: data center infrastructure, AI/HPC infrastructure, power systems engineering, cooling technologies, or advanced infrastructure engineering.
• Strong understanding of emerging AI compute technologies and infrastructure implications.
• Ability to analyze complex technical systems and translate findings into actionable engineering and infrastructure strategies.
Preferred:
• Master's degree and/or PhD in Engineering, Computer Science, Data Science, Energy Systems, or a related technical field.
• Experience with hyperscale or colocation data center environments.
• Knowledge of GPU infrastructure and AI workload behavior.
• Familiarity with utility coordination and energy systems.
• Understanding of high-density cooling technologies.
• Experience supporting large-scale infrastructure development projects.
• PE license or equivalent advanced technical credentials.
Company:
At Cologix, our mission is to cultivate a sustainable digital world that connects people, businesses and communities. Founded in 2010, the company is headquartered in Denver, USA, with a team of 501-1000 employees. The company is currently Growth Stage.