Venkata
Kanaparthi.

Senior Quality Engineer · Medical Devices

Safeguarding quality and compliance across the medical device lifecycle — from concept to commercialization.

Based inEden Prairie, Minnesota
Open toFull-Time & Contract Roles
CredentialsASQ CQE · Lean Six Sigma
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Venkata Kanaparthi professional headshot
Eden Prairie, Minnesota
About (Who I am)

I take medical devices from concept to commercialization — building the quality systems that ensure products reach the end user safe, effective, and compliant.

With almost eight years across R&D and Quality, and dual master’s degrees in Industrial and Mechanical Engineering, I work at the intersection of engineering innovation and regulatory rigor. My practice spans early-stage design inputs and feasibility through design controls, risk management, UFMEA / DFMEA / PFMEA, design verification and validation, process and test method validation, supplier quality, sustaining engineering, and post-market surveillance.

The work I value most is making complex quality systems better — through rigorous standards application, data-driven decision-making, mentorship, and cross-functional problem-solving that bridges R&D, regulatory, manufacturing, and operations.

Experience

Almost 8 years across R&D and Quality
Class I, II, and III medical devices

Education

M.S. Industrial Engineering
M.S. Mechanical Engineering

Frameworks

ISO 13485 · ISO 14971 · FDA QSR/QMSR
EU MDR · IEC 62304 · 21 CFR Part 11

Location

Eden Prairie, Minnesota
Minneapolis / St. Paul Metro

Approach (How I think)

Quality that moves with the work — not behind it.

Career Snapshot

Quality built on evidence, not assumption.

I've spent my career in the places where quality decisions actually get made — the PFMEA table, the DHF review, the production floor, and the audit room.

The consistent lesson: quality fails when it's added at the end. It works when it's embedded in how teams think from day one.

  • Design controls, DHF, RTM, and risk ownership from concept to transfer
  • Process validation, IQ/OQ/PQ, TMV, and statistical acceptance criteria
  • Supplier qualification, PPAP, SCAR management, and ASL development
  • FDA 21 CFR 820, ISO 13485, ISO 14971 — audit-ready documentation across Class I–III devices
How I Support Teams

From clarity to compliance — in that order.

Most quality problems aren't paperwork problems. They're clarity problems — no one agreed on what the requirement meant, who owns the risk, or what "verified" actually looks like for this device.

I come in where that ambiguity is costing time, audit findings, or re-work.

  • Design & risk — FMEAs grounded in actual use, not optimistic assumptions
  • DHF traceability that holds up under FDA scrutiny from user need to verification evidence
  • Tech transfer & validation — IQ/OQ/PQ that your team executes and auditors follow
  • I think like a regulator, work like an engineer, communicate for adoption
How I work

Close to the work, not above it.

My default is to show up where decisions actually happen — at the bench, on the line, and in the design review — not to manage from a distance through documents and meetings.

When engineers feel heard, rigor becomes the path of least resistance. My job is to make the right answer also the easy answer.

  • Show up early in development, when changing direction is still cheap
  • Bring data, drawings, and concrete examples — not just opinions
  • Translate regulatory expectations into deliverables engineers can act on
  • Document rationale so the next reviewer does not have to re-litigate the decision
Practice (What I do)

From concept to commercialization, with disciplined quality systems.

Fourteen practice areas across the medical device quality lifecycle — from early design controls and risk management through validation, supplier quality, post-market support, and regulatory submissions. Each card describes a class of work I have owned or led, and how it connects to the standards, documentation, and cross-functional decisions that make compliance real instead of theoretical.

01 — Design Controls

DHF Build, Remediation & Design Planning

Design and development plans, user needs, design inputs, design outputs, design reviews, traceability matrices, and DHF structures built to withstand FDA and notified body scrutiny.

02 — Risk Management

ISO 14971 Risk File Architecture

Risk management plans, hazard analyses, risk evaluations, residual risk and benefit-risk reasoning, plus cross-linking to verification, validation, and post-production information.

03 — FMEA Leadership

UFMEA, DFMEA & PFMEA

Cross-functional facilitation of use, design, and process FMEAs with robust severity/probability alignment, mitigation ownership, and clear feed into control strategies and V&V planning.

04 — Verification & Validation

Design Verification & Validation

Protocol authoring, traceability from requirement to evidence, statistical rationale, usability validation alignment, and execution support for bench, functional, and system-level testing.

05 — Process Validation

IQ / OQ / PQ & Equipment Qualification

Validation strategies and execution-ready protocols for equipment, utilities, and manufacturing processes with defined acceptance criteria, challenge conditions, and GDP discipline.

06 — Test Method Validation

ATMV, VTMV, MSA & Gage R&R

Analytical and visual method validation, measurement system studies, repeatability and reproducibility assessment, and statistical confidence that the method can truly detect product variation.

07 — Sterilization & Stability

Sterility, Aging & Shelf-Life Support

Sterilization validation support, reprocessing considerations, packaging integrity inputs, and aging strategies that link shelf-life claims to defensible evidence rather than assumptions.

08 — Post-Market & CAPA

PMS, Complaints, NC & CAPA

Complaint trending, health hazard evaluation input, structured investigation methods, CAPA development, effectiveness checks, and feedback loops into risk management and design controls.

09 — Supplier Quality

Supplier Quality & Tech Transfer

Supplier qualification, PPAP/APQP understanding, quality plans, control strategy alignment, incoming quality requirements, and site-to-site manufacturing transfer risk management.

10 — Audit Readiness

Inspection & Audit Preparation

Gap assessments, SOP and record review, mock-audit readiness, traceability health checks, and remediation support for FDA, ISO 13485, EU MDR, and internal quality system audits.

11 — SaMD & Digital Quality

Software Lifecycle & Digital Device Controls

SaMD and software-enabled device quality support including software requirements traceability, SOUP review, configuration management, cybersecurity considerations, IEC 62304, ISO 14971, and 21 CFR Part 11 alignment.

12 — Sustaining Quality

Process Improvement & Production Monitoring

Sustaining support through production monitoring, complaint and nonconformance trending, CAPA effectiveness, process capability review, yield and scrap analysis, SPC/control-chart interpretation, line-clearance and DHR review, and change-impact assessment.

13 — Cleaning Validation

Cleaning Validation & Residue Control

Worst-case product selection, residue limit rationale, swab and rinse recovery studies, acceptance criteria development, cleaning validation protocols, and lifecycle revalidation after process or equipment changes.

14 — Regulatory Submission Support

510(k), eSTAR & Q-Sub Support

Submission-ready documentation support for 510(k) and eSTAR packages, predicate comparison inputs, risk documentation cross-references, software and cybersecurity documentation coordination, and Q-Sub / deficiency-response discussion support.

Selected Work (Proof)

Representative competencies and quality leadership themes.

My work centers on the disciplined application of ISO 14971:2019, ISO 13485:2016, and 21 CFR Part 820 / QMSR expectations across the device lifecycle. I favor design controls that read as a coherent quality argument from user need through post-market learning.

All engagements are anonymized. Product identifiers, client identities, and proprietary methods are abstracted to protect confidentiality. The examples below describe the class of problem and quality approach, not a named client project.

Design ControlsDHF
Traceability

Design control systems built for audit defensibility

Work has included structuring user needs, design inputs, design outputs, reviews, and traceability matrices so that requirements, risk controls, verification, validation, and design transfer records read as one consistent system rather than disconnected documents.

Outcome: a DHF that withstands FDA and notified body scrutiny on first review — with risk controls, V&V evidence, and transfer records that map cleanly without reviewer-driven rework.

Risk ManagementISO 14971
Multi-product

Risk file architecture for complex product families

When programs span intermediates, accessories, sub-assemblies, and finished devices, the risk file must reconcile scope boundaries while preserving a consistent hazard universe. The output is a risk structure that withstands challenge on traceability, residual risk, and benefit-risk logic.

Outcome: a unified hazard universe across multiple device families — eliminating contradictory risk evaluations between related products and giving reviewers one defensible benefit-risk argument instead of several conflicting ones.

FMEA LeadershipDFMEA / PFMEA
Cross-functional

FMEA facilitation that influences design and process decisions

Effective FMEA work is not passive documentation. Engagements have included driving cross-functional severity calibration, aligning failure modes to practical controls, and surfacing high-risk issues early enough to shape design architecture, process flow, and control plans.

Outcome: FMEA findings that actually drove design and process changes — not after-the-fact documentation. High-risk failure modes caught in design phase where the cost of change is low, instead of post-launch where it is not.

ValidationIQ / OQ / PQ
TMV

Execution-ready validation packages

Validation packages commonly fail because of scope bleed, weak traceability, poor naming discipline, or missing acceptance rationale. The approach here emphasizes execution-readiness before approval, strong requirement-to-test linkage, and GDP discipline during execution.

Outcome: protocols that execute as written — no mid-run deviations driven by ambiguous acceptance criteria or scope creep. Audit reviewers can trace a requirement to its evidence in one step, not three.

Digital QualitySaMD
IEC 62304

Software lifecycle quality integrated into device development

For software-enabled devices, the work includes connecting software requirements, architecture, verification evidence, configuration management, unresolved anomalies, and cybersecurity considerations back into the broader design control and risk management system.

Outcome: a software file that does not live in isolation from the device DHF — software hazards, anomalies, and cyber controls show up in the right places in the risk file and submission, not as a separate parallel document set.

Regulatory Support510(k) / eSTAR
Q-Sub

Submission support grounded in quality documentation

Submission support has involved ensuring that risk management, V&V evidence, labeling, software documentation, and design history materials are submission-ready and internally coherent for 510(k), eSTAR, technical file, or pre-submission discussions.

Outcome: submissions that read as one coherent story across modules — fewer reviewer questions, cleaner deficiency responses, and design history evidence that supports rather than contradicts the regulatory argument.

LinkedIn Profile
Credentials

Standards, certifications, and applied quality disciplines.

Certifications
Standards & Regulations
  • ISO 13485:2016
  • ISO 14971:2019
  • 21 CFR Part 820 / FDA QSR & QMSR principles
  • EU MDR / Technical Documentation expectations
  • IEC 62304 · IEC 62366 · IEC 60601-1
  • 21 CFR Part 11 · BS EN ISO 22442-1
Tools & Systems
  • SoftExpert · SmartSolve · Windchill · SAP
  • Power BI · Minitab · JMP
  • SolidWorks · MATLAB · LabVIEW
  • Microsoft Project · Visio · Bluebeam · Excalidraw
Industries & Device Types
  • Orthopedic implants & external fixation
  • Tissue regeneration medical devices
  • Combination products & biologics-device interfaces
  • Pharmaceuticals
  • Ultrasound & imaging catheters
  • SaMD & software-enabled medical devices
  • Class I, II, and III device experience
Resume (Philosophy)

Career evidence, quality mindset, and execution discipline.

A senior medical device quality engineer working across R&D, design assurance, manufacturing, and supplier quality — with ASQ Certified Quality Engineer credentials, Lean Six Sigma Green Belt, and dual master’s degrees in Industrial and Mechanical Engineering. Open to senior full-time roles and contract engagements where disciplined quality systems make a measurable difference to patient safety and product performance.

What good looks like in quality

Good quality work isn’t paperwork compliance. It is building a clear line of sight — from user need and intended use through hazards, requirements, verification evidence, production controls, and post-market feedback. When that line holds, audits go fast and field issues stay rare.

  • Define requirements clearly before any test plan is written.
  • Anchor every risk control to objective evidence, not optimism.
  • Make decisions defensible through data, traceability, and cross-functional challenge.
  • Close the loop from production and field signals back into risk and design controls.
  • Build documentation that tells a single coherent story, not a stack of disconnected files.

How I work to get there

The mindset is prevention before paperwork: understand the process, challenge weak assumptions, document the rationale, and build quality into the work before defects, audit findings, or field issues force the conversation.

  • Start with the patient, the user, and the intended use — not the SOP.
  • Translate quality expectations into measurable requirements and acceptance criteria.
  • Drive alignment across R&D, manufacturing, regulatory, suppliers, and operations.
  • Treat CAPA, complaints, and NCs as learning signals, not just compliance records.
  • Mentor engineers and reviewers so the quality argument outlives any single project.
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Get in Touch (Reach out)

Let's make quality systems better.

This is what I do, how I think, and the kind of quality work I help organizations get right. If your team or company needs help building inspection-ready design controls, structuring a risk file, leading FMEA work, validating a process, or tightening a quality system — reach out. I’m open to both senior full-time roles and contract engagements, and I am happy to talk through what you’re working on before we decide whether there’s a fit.

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Eden Prairie, MN · Minneapolis / St. Paul Metro · venkatakanparthi@gmail.com