Senior Manufacturing Engineer, Capacitor Production

Xcimer Energy

Tucson, AZ

Full Time

Posted October 7, 2026

$140k - $165k

Energy Management

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Listing evidence and provenance

Source: Lever View original listing
Freshness: Open in the current public read path; this is not an employer guarantee.Last observed October 8, 2026
Classification: Modern power-system classification not yet published for this listing.Legacy source industry field: Energy Management
Pay provenance: Employer-provided pay

Job Description

Own the process execution for the released manufacturing processes on the capacitor line.

Key Responsibilities

Own the process execution for the released manufacturing processes on the capacitor line.
Author and maintain the work plans, work cards, setup sheets, and stage inspections that govern production in Boltline, and keep the released revision matched to what the line actually does.
Convert tribal knowledge into documented, repeatable, verified standard work. Where an operation depends on an individual's judgment, make that judgment explicit and teachable.
Maintain the process documentation set as a living system rather than a compliance artifact: reviewed on a cadence, corrected when it is wrong, and trusted by the people who use it.
Define and maintain process capability baselines, and establish the measurements needed to know whether a process is in control before it produces scrap.
Own production yield and first-pass yield on mature processes. Monitor scrap, rework, and defect rates, and drive them down through verified process changes rather than added inspection.
Lead structured root cause corrective action (RCCA) on process-driven escapes and failures, through to verified, sustained closure — not to a plausible theory.
Investigate electrical acceptance test failures, including HiPot, and distinguish isolated defects from systemic process drift. Partner with Quality on the disposition of nonconforming material and on the technical content of NCR dispositions in Boltline.
Apply statistical process control and data analysis to reduce variation, and build the data collection into the process so the analysis is possible in the first place.
Contribute to and maintain PFMEAs for the processes you own, and close the actions they generate.
Audit the floor against documented standard work, and treat every gap as either a documentation defect or a training defect — then fix the one it is.
Drive day-to-day process improvements that raise yield, shorten cycle time, reduce cost, and steady output on the line as it is configured today.
Attack the constraints that actually set weekly output. Vacuum drying and impregnation run a multi-day fixed cycle across a limited number of tanks, and electrical acceptance testing can gate release independently of build rate; sequencing, batching, and capacity decisions around those operations deserve engineering attention before labor does.
Lead Lean initiatives focused on flow, waste reduction, and setup time, and sustain 5S standards as a condition of process control rather than as housekeeping.
Improve manufacturability of parts already in production by working the engineering change process with the design and development teams, with clear cost, yield, or rate justification.
Build every improvement with a sustainment plan: updated documentation, retrained operators, a defined measurement, and an audit that confirms it held ninety days later.
Quantify improvements honestly, including the ones that did not work, and keep a visible record of what has been tried.
Own the process side of production equipment: documented setup parameters, operating limits, qualification after maintenance, and the process impact of any equipment change.
Partner with Maintenance on preventive maintenance content, failure analysis, and the spares that protect the constraint operations.
Specify, procure, install, and qualify tooling, fixtures, and process equipment that improve capability or rate on the existing line, including acceptance criteria and a qualification plan before the purchase order.
Evaluate targeted automation and mechanization opportunities where they remove variation or a genuine bottleneck, and be honest about where manual process is still the right answer.
Run process changes through change control. No change reaches the floor without updated work instructions, a qualification result, retrained and re-qualified operators, and documented approval.
Re-qualify affected operators on every process change, and keep Boltline group membership and the training matrix aligned so that only qualified people can sign off on an operation.
Support the qualification and transition of new and maturing processes into production, and accept ownership only when the process is genuinely ready — with documentation, capability data, and trained operators in place.
Host development and experimental runs on production equipment, scheduling them against committed build demand and protecting both the experiment and the delivery commitment.
Reinitiate the job hazard analysis when a process, material, or piece of equipment changes, and ensure the safety case is current before the change runs.
Be visibly present on the production floor every day. Process problems are found at the machine, not in a report about the machine.
Coach operators, technicians, and production leadership on why a process is specified the way it is, so that compliance rests on understanding rather than on instruction.
Hold the line when schedule pressure invites a workaround: stop the work, document the problem, and drive the fix through change control rather than around it. Escalate clearly and early instead of quietly absorbing risk.
Set the standard personally. Your documentation, your data, and your follow-through establish what good looks like for everyone else on the site.
Build habits that outlast any individual: daily management routines, visible metrics, and a shared expectation that the documented process is the real process.
Design and operate processes so the safe method is the standard method, and verify that documented controls are actually in use.
Address the specific hazards on this line — solvents, oils, resins, elevated temperatures near drying and impregnation equipment, and stored energy in high-voltage test areas — through engineering controls first and procedure second.
Support safety incident investigations with process analysis, and carry the resulting corrective actions to closure.
Comply with OSHA regulations and company safety policy, and support the production organization's authority over safe operation of equipment and facilities.

Requirements

Education: Bachelor's degree in Manufacturing, Mechanical, Electrical, Industrial, Materials, or Chemical Engineering, or a related technical field.
Experience: 7+ years of manufacturing or process engineering experience supporting active production, including direct responsibility for yield, rate, or process capability on a line that was shipping product.
Demonstrated record of measurable process improvement on a running line — specific problems, specific methods, specific results you can walk through.
Demonstrated commitment to process discipline: experience writing and enforcing work instructions, operating within change control, and holding a documented standard under schedule pressure.
Fluency in structured problem solving and root cause corrective action, and the judgment to know when a root cause has actually been proven.
Working knowledge of statistical process control, process capability, and practical data analysis.
Experience in electronics, capacitor, high-voltage, or precision manufacturing.
Credibility with operators and technicians, and the communication skills to coach, persuade, and push back effectively at every level.
Proficiency with a manufacturing execution system (MES) or ERP and with Microsoft Office. Xcimer runs Boltline; training will be provided.
Must be a U.S. citizen or national, U.S. permanent resident (current Green Card holder), or lawfully admitted into the U.S. as a refugee or granted asylum.
Film and foil capacitor manufacturing
High-voltage capacitor production
Winding operations and margin control
Metallization by twin-wire arc or flame spray, and swaging
Vacuum drying and impregnation processes
Resin potting or oil-filled capacitor assembly
Electrical acceptance and dielectric withstand (HiPot) testing
Pulsed power, high-energy-density, Marx generator, or pulse-forming network applications
Scaling a line from pilot build to rate production
Lean or Six Sigma certification, and PFMEA and control plan development
ISO 9001 or AS9100 quality systems
Establishing an operator qualification program from scratch
A modern cloud MES such as Boltline
Mentoring engineers or technicians, or building a small engineering team