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Process Safety Engineer Jobs in Montana (NOW HIRING)

Electrical Engineering Status: Full-time Nomad GCS is currently seeking a Level III Electrical ... Deep familiarity with compliance, certification, and safety-critical design processes. * Ownership ...

Electrical Engineering Status: Full-time Nomad GCS is currently seeking a Level III Electrical ... Deep familiarity with compliance, certification, and safety-critical design processes. * Ownership ...

Industrial Engineer III

Libby, MT · On-site

$82K - $99K/yr

Ensures manufacturability, safety, engineering intent, efficiency, and continuous improvement ... Understanding of fabrication, welding, mechanical assembly processes. * Strong cross-functional ...

Ensures manufacturability, safety, engineering intent, efficiency, and continuous improvement ... Understanding of fabrication, welding, mechanical assembly processes. * Strong cross-functional ...

Industrial Engineer III

Libby, MT · On-site

$58K - $79K/yr

Ensures manufacturability, safety, engineering intent, efficiency, and continuous improvement ... Understanding of fabrication, welding, mechanical assembly processes. * Strong cross-functional ...

Showing results 41-60

Process Safety Engineer information

See Montana salary details

$35.3K

$103.9K

$144.1K

How much do process safety engineer jobs pay per year?

As of Aug 22, 2026, the average yearly pay for process safety engineer in Montana is $103,872.00, according to ZipRecruiter salary data. Most workers in this role earn between $90,900.00 and $118,400.00 per year, depending on experience, location, and employer.

What is a process safety engineer?

Process Safety Engineers are professionals who focus on identifying, evaluating, and mitigating risks associated with industrial processes, particularly those involving hazardous materials or conditions. Their primary goal is to prevent accidents, fires, explosions, and environmental releases by designing and implementing safety protocols and systems. They work closely with engineering teams, management, and regulatory agencies to ensure compliance with safety standards and promote a culture of safety within organizations. Process Safety Engineers also investigate incidents, conduct hazard analyses, and develop emergency response plans.

What does a process safety engineer do?

Process safety engineers work to decrease risk and ensure safety in construction and manufacturing companies. They assess the work conditions and identify potential risks and offers cost-effective solutions to diminish or remove those hazards. You find process safety engineers in many industries, including construction, manufacturing, and aerospace. To become a process safety engineer, you must have a bachelor’s degree in mechanical engineering, chemical engineering, or a related field. Additional qualifications include strong technical and mechanical skills and experience in a manufacturing environment.

What are the key skills and qualifications needed to thrive as a process safety engineer, and why are they important?

To thrive as a Process Safety Engineer, you need a solid background in chemical or mechanical engineering, risk assessment, and regulatory compliance, usually supported by a relevant engineering degree. Familiarity with process simulation software, hazard analysis tools (such as HAZOP or LOPA), and certifications like CSP or CCPSC are commonly required. Attention to detail, strong analytical thinking, and effective communication help professionals excel in identifying and mitigating risks. These skills and qualifications are crucial to ensuring operational safety, regulatory adherence, and the prevention of industrial accidents.

What are some common challenges faced by process safety engineers, and how are they typically addressed within teams?

Process Safety Engineers often face challenges such as ensuring compliance with complex regulations, identifying and mitigating potential hazards, and fostering a safety-first culture across multidisciplinary teams. These challenges are typically addressed by conducting thorough risk assessments, staying updated on evolving safety standards, and collaborating closely with operations, maintenance, and management teams. Regular safety audits, clear communication, and ongoing training also play vital roles in overcoming these hurdles and maintaining a safe working environment.

What is the difference between Process Safety Engineer vs Process Engineer?

AspectProcess Safety EngineerProcess Engineer
CredentialsTypically requires a degree in chemical, mechanical, or safety engineering; certifications like ASP or CSP are commonRequires a degree in chemical, mechanical, or industrial engineering; certifications are less common
Work EnvironmentFocuses on safety protocols, hazard analysis, and risk management in industrial plantsDesigns, optimizes, and oversees manufacturing processes in similar settings
Industry UsageUsed in industries with high safety risks like oil & gas, chemicals, and refiningUsed across manufacturing, chemical, and process industries for process development

The Process Safety Engineer primarily concentrates on hazard prevention, safety protocols, and risk mitigation to ensure safe operations. In contrast, the Process Engineer focuses on designing and improving manufacturing processes. Both roles require engineering backgrounds but differ in their core responsibilities and safety emphasis.

What are the most commonly searched types of Process Safety Engineer jobs in Montana?

The most popular types of Process Safety Engineer jobs in Montana are:

What are popular job titles related to Process Safety Engineer jobs in Montana?

For Process Safety Engineer jobs in Montana, the most frequently searched job titles are:

What job categories do people searching Process Safety Engineer jobs in Montana look for?

The top searched job categories for Process Safety Engineer jobs in Montana are:

Infographic showing various Process Safety Engineer job openings in Montana as of August 2026, with employment types broken down into 1% As Needed, 77% Full Time, 18% Part Time, 1% Temporary, 2% Contract, and 1% Nights. Highlights an 99% Physical, and 1% Remote job distribution, with an average salary of $103,872 per year, or $49.9 per hour.

Manufacturing Engineer IV

Kratos Defense

Columbia Falls, MT

$66K - $86K/yr

Full-time

Posted 15 days ago


Kratos Defense & Security Solutions rating

7.8

Company rating: 7.8 out of 10

Based on 10 frontline employees who took The Breakroom Quiz


Job description

Job Description: Overview: Nomad Global Communication Solutions (Nomad GCS) is a leading provider of communication and response products serving a wide variety of customers. Our purpose is to be the solution when every minute matters. We seek a candidate that is self-inspired to learn and demonstrates a high degree of customer service while positively contributing to our team. The Manufacturing Engineers (MFEs) at Nomad GCS play a crucial role in supporting the engineering and production processes by identifying and planning for the design, process, and tooling challenges that arise during production. MFEs have experience in mechanical or electrical engineering. This position requires electrical engineering experience with strong problem-solving abilities, and a proactive approach to resolving issues. MFEs will collaborate on new projects within the broader engineering scope, including outside their primary areas of expertise. Being able to learn on-the-fly is required. All solutions must adhere to or exceed Nomad's standards of safety, efficiency, quality, and scalability. Career Growth: Manufacturing Engineers at Nomad GCS progress through five levels based on: DFM execution and design risk mitigation Tooling, fixture, and process architecture Change control ownership and impact modeling Production issue resolution and prevention Manufacturing documentation standardization Cross-platform manufacturability improvement Production efficiency and cost optimization Technical mentorship and leadership Advancement is supported through hands-on project ownership, cross-functional collaboration, mentorship, and alignment with Nomad's Core Values. Organizational Structure: Nomad Engineering is organized into Teams and Disciplines within the Innovative Solutions Division. Teams: Team 1 (Standards and Modularity): Builds and maintains engineering standards, modules, templates, and rules enabling repeatability and scale. Team 2 (Design): Executes project-level engineering using established standards and less complex custom configurations. Team 3 (Advanced): Develops novel systems and resolves first-of-kind engineering challenges. Team 4 (Manufacturing & Industrial Engineering): Ensures manufacturability, safety, engineering intent, efficiency, and continuous improvement throughout Production. Disciplines: Mechanical Engineering Electrical Engineering IT Engineering Human Factors Engineering Software Engineering Industrial Engineering (IE) Manufacturing Engineering (MFE) MFEs operate primarily within Manufacturing & Industrial Engineering (Team 4) while also supporting: ISG - Standards & Modularity (Team 1) ISG - Design Engineering (Team 2) ISG - Advanced Engineering (Team 3) Production - assigned Project/team support on the floor Supply Chain Quality Assurance Team 4 contains both MFEs and IEs. These roles are differentiated in that the MFEs are to focus on how we build the product correctly and repeatably, whereas the IEs are to focus on how we build it efficiently and at scale. The open position on Team 4 is for an MFE with an electrical engineering background. Basic Knowledge Desired - All Levels: Design for Manufacturability (DFM) principles and application during digital and physical builds. Electrical design fundamentals including low-voltage (12V/24V DC) circuits, high-voltage. (120V/240V AC) circuits, control systems, and power distribution. Design and manufacturing principles used in electrical wiring or harnessing production and its installation within industrial equipment and electrical cabinets. Tooling and fixture design concepts for repeatability, safety, and production efficiency. Raw material or component selection, fabrication methods, and production cost considerations. Interpretation and creation of precision technical drawings and digital models. CAD proficiency (SolidWorks Electrical or equivalent) including modeling, drawing release, and file management. ERP systems and change control processes (CR/CO workflow). Standard manufacturing documentation practices and revision control. Root cause analysis and structured problem-solving methods. Competency in business and engineering software (MS Office: Word, Excel, PowerPoint). Hands-on experience with electrical hand tools (crimping, stripping, soldering), test equipment (multimeter, oscilloscope). IPC/WHMA-A-620 or equivalent knowledge or training. Ability to communicate effectively between Engineering and Production teams. Demonstrated alignment with Nomad Core Values. Core Responsibilities - All Levels: Review designs for manufacturability (DFM) during digital design and physical construction. Use software (SolidWorks Electrical) to create/edit designs to be used in final production. Advise Engineering on consistent documentation for DFMActs as a bridge between mechanical design and electrical/IT requirements by working with designers early to identify and mitigate issues, managing major SPN concerns before design freeze, and ensuring critical provisions such as wiring, pass-throughs, interfaces, bulkheads, waterproofing, and IT infrastructure needs are incorporated before mid-build integration challenges arise. Collaborate with Mechanical Engineering on design inputs from an electrical perspective to facilitate needed wiring passthroughs, wire routing, interfaces, bulkheads, and waterproofing required by the Electrical Engineering design. Develop and maintain standard work documentation. Develop, implement, and improve manufacturing processes. Support production through training them on standard manufacturing processes. Support production by troubleshooting build issues and clarifying engineering intent. Create and maintain fixtures and tooling designs using hand tools and shop machinery (manual + CNC). Conduct testing and validation, formally documenting results. Analyze CR/COs and assess impact to schedule and costs. Serve as liaison between Engineering and Production. Drive continuous improvement in safety, quality, efficiency, and standardization. Handle and prioritize multiple project requests at the same time. Be willing to travel as needed by Management. Uphold and model Nomad Core Values. Perform additional duties as assigned. Manufacturing Engineer IV - Senior / Technical Lead Own manufacturing architecture and standardization across multiple product lines. Define and refine Nomad's manufacturing standards, tooling libraries, and modular build strategies. Lead high-risk or complex build programs from prototype through release. Balance competing constraints (schedule, cost, manufacturability, safety). Serve as primary manufacturing authority during cross-functional reviews. Drive capital equipment recommendations and manufacturing technology adoption. Coach and mentor MFEs and production leaders. Recognized internally as a go-to expert for complex production challenges. 8-12+ years advanced manufacturing/industrial engineering experience. Electrical Engineering Experience Expert system-level electrical design and integration experience across power distribution, control systems, and communications architectures. Excellent troubleshooting and root cause analysis capability involving complex electrical, integration, manufacturing, and field issues. Ability to architect and optimize AC/DC electrical systems, wiring strategies, protection schemes, and control interfaces. Skilled in reviewing, approving, and improving engineering documentation including schematics, wiring diagrams, BOMs, and test procedures. Demonstrated knowledge of applicable electrical standards, codes, and best practices including NEC, UL, IEC, and safety compliance requirements. Experience supporting multiple production environments, resolving technical issues, and improving manufacturability and serviceability of designs. Strong cross-functional collaboration skills with mechanical engineering, software, IT integration, manufacturing, quality, suppliers, and customers. Experience leading validation activities, system testing, and failure investigations. Excellent technical communication and project coordination skills with internal teams, suppliers, and external stakeholders. Proficient with ECAD tools, electrical documentation systems, and engineering change management processes. Demonstrated ability to independently manage conflicting priorities, technical risk, and engineering deliverables on complex programs. Primary Focus: Defining and standardizing manufacturing architecture, tooling ecosystems, and cross-platform manufacturability best practices. Progression Signal: Others rely on this engineer's judgment for high-impact manufacturing decisions. Basic Knowledge Progression: Level I: Foundational understanding of DFM, shop processes, and documentation standards Level II: Strong working knowledge of tooling, tolerance analysis, ERP change control, and production troubleshooting Level III: System-level manufacturability expertise and production risk mitigation Level IV: Platform-level manufacturing architecture and cross-functional leadership Level V: Enterprise-level manufacturing strategy, scalability, and innovation leadership Visual Progression Ladder: Level Scope Authority Impact I Task-Level Learns standards Reduces rework II Assembly-Level Independent execution Improves production reliability III System-Level Technical mentor Prevents production failures IV Platform-Level Technical authority Standardizes manufacturing V Enterprise-Level Strategic leader Shapes how Nomad builds Physical Demands: Ability to stand and sit for extended periods. Occasionally required to climb, balance, stoop, kneel, crouch, or crawl. Manual dexterity to operate office and manufacturing equipment. Ability to lift and/or move up to 25 pounds frequently and up to 50 pounds occasionally. Ability to speak and hear. Vision requirements include close and distance vision, peripheral vision and depth perception. Ability to work in office, shop, and vehicle environments as needed. Ability to work safely around energized systems when required. Must be able to travel as needed on occasion. Working Environment: Combination of office, production floor, vehicle-based, and exterior environments Exposure to manufacturing noise, electrical equipment, and testing environments PPE required when entering production or testing areas Exposure to household and commercial chemicals Everyday workwear must be business casual/smart casual, appropriate for the office environment, including when traveling and working off-site. Qualifications & Experience: Bachelor of Science in Manufacturing Engineering or related field - ABET accredited preferred Equivalent education and experience may be considered Experience with SolidWorks modeling, drawings, and file management Experience with ERP software in a manufacturing environment Valid driver's license in good standing 8-12+ years advanced manufacturing/industrial engineering experience. Electrical Engineering Experience Expert system-level electrical design and integration experience across power distribution, control systems, and communications architectures. Excellent troubleshooting and root cause analysis capability involving complex electrical, integration, manufacturing, and field issues. Ability to architect and optimize AC/DC electrical systems, wiring strategies, protection schemes, and control interfaces. Skilled in reviewing, approving, and improving engineering documentation including schematics, wiring diagrams, BOMs, and test procedures. Demonstrated knowledge of applicable electrical standards, codes, and best practices including NEC, UL, IEC, and safety compliance requirements. Experience supporting multiple production environments, resolving technical issues, and improving manufacturability and serviceability of designs. Strong cross-functional collaboration skills with mechanical engineering, software, IT integration, manufacturing, quality, suppliers, and customers. Experience leading validation activities, system testing, and failure investigations. Excellent technical communication and project coordination skills with internal teams, suppliers, and external stakeholders. Proficient with ECAD tools, electrical documentation systems, and engineering change management processes. Demonstrated ability to independently manage conflicting priorities, technical risk, and engineering deliverables on complex programs.

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