PAWEŁSOBECKI

My professional background spans 25 years of applied polymer science and nonmetallic materials engineering across demanding industrial sectors, covering elastomers and rubber, engineering and high-performance thermoplastics, fluoropolymers, thermosets, composites, and bonded material systems.

I connect polymer chemistry, compound design, and processing knowledge to the service behavior of safety-critical components, working from the molecular scale outward to relate formulation, morphology, and processing history to field performance, qualification evidence, and defensible engineering decisions.

CORE CAPABILITIES

End-to-end elastomer development and commercialization: Successful development of 15 high-performance elastomer formulations from initial ideation and compound design through qualification and industrial scale-up to commercial market launch. Application of rigorous scientific methodology across the entire development lifecycle, combining formulation chemistry, molding process optimization, advanced analytical characterization, and harsh-environment exposure testing to deliver production-ready, fully qualified materials for critical service.

Elastomer and rubber technology: Extensive hands-on knowledge of high-performance elastomer families utilized in critical oilfield, subsea, emerging-energy, and general-industry applications, including FKM, FFKM, FEPM (TFE/P), ETP, PFPE, HNBR, XNBR, NBR, EPDM, FVMQ, VMQ, and specialized polymer blends. Thermoplastic elastomer expertise also includes thermoplastic vulcanizates (TPV), thermoplastic copolyester elastomers (TPC-ET), and polyether block amides (PEBA), with their material characteristics, processing, modification, and suitability for demanding applications.

Polyurethane elastomers: Comprehensive, recognized expertise in the synthesis and processing of polyurethane and polyurethane/urea elastomers, including segmented polymers made by one-shot, prepolymer, and quasi-prepolymer methods, and hot- and cold-cast TPUs. Nanocomposite experience includes carbonaceous fillers and biobased functional reinforcements such as chitin and cellulose. Expertise spans raw-material selection, formulation, processing, and characterization, with broader experience in PU foams, dispersions, coatings, adhesives, fibres, and biomedical materials.

Formulation and property engineering: Formulation, compounding, and processing to achieve demanding performance envelopes, including HPHT and HPLT capability, sour-gas resistance, rapid gas decompression (RGD) resistance, low-temperature resilience, extrusion resistance, low compression set, broad chemical compatibility, and optimized tribological behavior.

Polymer architecture and vulcanization chemistry: In-depth understanding of polymer chain architecture, vulcanization mechanisms, reinforcing filler networks, and functional additive systems. Direct correlation of compounding methods, mold-flow rheology, vulcanization kinetics, and postcure cycles with compound physicochemical attributes and long-term sealing performance in aggressive operating environments.

High-performance thermoplastics and fluoropolymers: Comprehensive expertise in high-performance thermoplastics used in oilfield tooling, sealing systems, and downhole, offshore, and subsea equipment, including PAEK-family polymers (PEEK, PEKK, PEK, PEKEKK), PPS, PPSU, POM, PBI, PAI, TPI, PEI, UHMWPE, and polyamides (PA11, PA12, PARA). Deep specialization in fluoropolymers (PTFE, modified PTFE/TFM, PVDF, PFA, FEP, PCTFE, ETFE) focusing on chemical resistance, friction and wear, sealability, creep, permeability, and dimensional stability. Specification and differentiation of virgin, modified, and reinforced grades aligned with mechanical, thermal, tribological, and dimensional criteria.

Composites, thermosets, and bonded systems: Engineering evaluation of fiber-reinforced polymer composites utilizing epoxy, polyester, phenolic, and cycloolefin matrix systems in structural, insulating, bearing, sealing, and load-transfer applications. Analysis of how fiber type, orientation, resin chemistry, cure conditions, void content, and environmental exposure impact mechanical durability and dimensional stability. Assessment of bonded assemblies with focus on interfacial compatibility, differential thermal expansion, stress concentrations, fluid ingress, fatigue, and adhesive or cohesive failure modes.

Polymer processing and conversion technologies: Working knowledge of molding, extrusion, precision machining, forming, welding, and joining processes for engineering plastics and fluoropolymers. Evaluation of how processing history, degree of crystallinity, morphology, residual stress, molecular orientation, and thermal conditioning influence final component dimensions, mechanical integrity, and in-service performance.

Applied chemistry: In-depth understanding of the chemical interactions between polymeric materials and aggressive media encountered in oilfield, offshore, subsea, and process environments. Evaluation of resistance to hydrocarbons, methane, CO₂, sour gas (H₂S), completion brines, drilling fluids, production chemicals, acids, alkalis, amines, methanol, glycols, hydraulic and control fluids, lubricants, and high-temperature steam. Characterization of degradation mechanisms, including swelling, plasticization, extraction, hydrolysis, thermo-oxidation, chain scission, cross-linking shifts, and embrittlement.

Mass transport phenomena: Mechanistic understanding of mass-transport processes in polymers under high-pressure and high-temperature conditions, covering fluid sorption, dissolution, diffusion, permeation, partitioning, and desorption. Application of transport models to evaluate barrier performance, gas-containment integrity, and decompression-damage susceptibility in high-pressure gas service.

I bring in-depth knowledge of the qualification frameworks governing elastomeric and thermoplastic materials used in oilfield production systems — including seals, wellheads, XMTs, packers, bridge plugs, subsea equipment.

I design and supervise third-party qualification programs — from preparing test programs and coordinating laboratories to providing technical oversight, analyzing results and producing compliance documentation. This involves translating service conditions into appropriate test requirements and evaluating material performance against applicable acceptance criteria.

A key strength is my ability to interpret and reconcile overlapping industry standards and customer specifications, identify the binding requirements for each application, and develop a clear, technically sound and defensible qualification strategy.

Working Knowledge of Industry Standards and Nonmetallics Specifications:

NORSOK M-710 — Qualification of nonmetallic materials and manufacturers — Polymers [Qualification framework for elastomeric and thermoplastic sealing materials used in Norwegian Continental Shelf (NCS) production systems]

ISO 23936-1 — Oil and gas industries including lower carbon energy — Nonmetallic materials in contact with media related to oil and gas production — Part 1: Thermoplastics [Procedures and acceptance criteria for evaluating thermoplastic materials in contact with oil and gas production media]

ISO 23936-2 — Petroleum, petrochemical and natural gas industries — Nonmetallic materials in contact with media related to oil and gas production — Part 2: Elastomers [Requirements for qualifying elastomeric materials]

ISO 10423/API 6A — Petroleum and natural gas industries — Drilling and production equipment — Wellhead and tree equipment [Nonmetallic seal qualification]

ISO 14310/API 11D1 — Petroleum and natural gas industries — Downhole equipment — Packers and bridge plugs [Validation levels (V0–V6), test matrices, gas-tight qualification, and combined-load cycling protocols]

API 16C — Choke and Kill Equipment [Nonmetallic seal qualification, pressure cycling, temperature service requirements]

API 17D — Specification for Subsea Wellhead and Tree Equipment [Subsea-specific extension of API 6A, long design life requirements, qualification of seals under deep-water hydrostatic conditions]

API TR-6J1 — Elastomer Life Estimation Testing Procedures [Technical report on elastomer qualification best practices for wellhead equipment]

ISO 15156/NACE MR0175 — Petroleum and natural gas industries — Materials for use in H₂S -containing environments in oil and gas production [Nonmetallic materials considerations]

NACE TM0187 — Standard Test Method Evaluating Elastomeric Materials in Sour Gas Environments [Test media, exposure conditions, property measurement requirements]

NACE TM0296 — Evaluating Elastomeric Materials in Sour Liquid Environments [Evaluation of elastomeric materials in sour liquid environments — static immersion protocol, media compositions, property change reporting]

NACE TM0192 — Evaluating Elastomeric Materials in Carbon Dioxide Decompression Environments [Elastomeric material qualification: test procedure and damage assessment methodology]

NACE TM0297 — Effects of High-Temperature, High-Pressure Carbon Dioxide Decompression on Elastomeric Materials

Proprietary specifications used by major operators: TotalEnergies GS EP PVV 142 [Elastomer O-ring seals explosion decompression — Type testing procedure], Shell MESC SPE 85/301 [Toroidal sealing ring (O-ring) test procedure] and DODEP 02.01B.03.02 [General decompression resistance of elastomer materials], Saudi Aramco 06-SAMSS-001 [Qualification Requirements of Elastomeric Materials and Manufacturers], and similar internal specifications.

I’ve developed extensive expertise in selecting, engineering, and qualifying nonmetallic materials for safety-critical components exposed to extreme temperatures, pressures, mechanical loads, rapid decompression, and aggressive service fluids.

I apply a structured approach that maps operating conditions — temperature, pressure, service media, loading, pressure cycling, decompression rates, and required service life — to material capabilities and application risks. I combine polymer science, sealing technology, compatibility testing, reliability assessment, and industry standards to develop technically defensible recommendations supported by screening matrices, elimination criteria, and documented risk acceptance.

I provide material guidance for elastomeric and thermoplastic seals, packer elements, valve seats and seals, diaphragms, membranes, wellhead seals, and bonded assemblies used in offshore, subsea, downhole, chemical processing, hydrogen, geothermal, and carbon-management applications.

CORE CAPABILITIES

Structured material selection: Mapping operating physical, chemical, and mechanical conditions, required lifetime, and failure consequences against material capabilities. Documenting screening matrices, elimination criteria, technical and economical trade-offs, short-listing rationale, residual risks, and final recommendations.

Polymers and critical components: Selecting elastomers, engineering and high-performance thermoplastics, fluoropolymers, thermosets, and composites for O-rings, gaskets, packer elements, valve seats, wellhead seals, diaphragms, membranes, backup and guide rings, and bonded assemblies. Materials expertise includes virtually all polymers/nonmetallics applicable in energy-relevant service.

Temperature and pressure extremes: Evaluating HPHT and HPLT effects on chain mobility, glass transition, stiffness, creep, stress relaxation, contact pressure, and extrusion resistance. Applying this knowledge to material and sealing system selection for Arctic, deep-water, subsea, downhole, and other extreme-service environments.

Chemical compatibility and aggressive fluids: Assessing polymer performance in hydrocarbons, crude oil, sour gas, completion brines, drilling fluids, control fluids, steam, acids, alkalis, solvents, methanol, liquid and supercritical CO₂, hydrogen, and geothermal fluids. Using literature data, Hansen Solubility Parameters (HSP) framework, immersion testing, and analytical characterization to evaluate swelling, extraction, plasticization, hydrolysis, oxidation, chain scission, and loss of mechanical integrity.

Rapid Gas Decompression: Applying a mechanistic understanding of gas permeation, dissolution, bubble nucleation, and decompression damage to material and seal selection. Designing and interpreting RGD qualification programs, assessing internal damage, and recommending mitigation through compound selection, cross section and gap control, seal geometry, and decompression procedures.

Mechanical loading, tribology, and wear: Evaluating compression set, stress relaxation, creep, clearance gap extrusion, friction, and wear as drivers of long-term sealing performance. Considering pressure differential, extrusion-gap geometry, countersurface finish, lubrication, temperature, and tribological behavior when selecting elastomers and thermoplastics for static and dynamic applications.

Manufacturing and processing effects: Assessing how formulation, compounding, mixing, mold flow, vulcanization, post-curing, and thermoplastic processing affect material structure and field performance. Relating manufacture defects, contamination, and dimensional nonconformities to variability, premature failure, and changes in failure mode.

Material specifications and supplier control: Authoring and maintaining specifications defining composition, property ranges, test methods, statistical acceptance criteria, processing requirements, shelf life, packaging, traceability, and supplier qualification. Supporting revision control, configuration management, material declarations, Material Test Reports, and Certificates of Conformance.

Qualification program design and execution: Developing phased programs covering material screening, qualification, component validation, and production qualification. Defining test media, exposure conditions, specimen quantities, acceptance criteria, documentation requirements, and third-party scopes of work, with experience supporting programs based on NORSOK M-710, ISO 23936, API, and NACE requirements.

Long-term aging and service-life assessment: Planning accelerated aging and compatibility studies using ALT/HALT/HASS frameworks, time–temperature superposition, Arrhenius/Eyring modeling, WLF analysis, where technically appropriate. Interpreting degradation trends, defining tailored end-of-life criteria, and supporting service-life, life-extension, and retirement recommendations while recognizing the limitations of extrapolation under complex field conditions.

Customer qualification and technical assurance: Working directly with operators, OEMs, suppliers, and independent laboratories to review protocols, analyze qualification data, resolve technical questions, and defend material choices. Converting multidisciplinary evidence into clear recommendations supporting material approval, product design, tendering, asset integrity, and risk-based decision-making.

My engineering background spans 12 years of hands-on experience with critical elastomeric, thermoplastic, and hybrid sealing systems, integrating polymer materials science with mechanical design, manufacturability, numerical simulation, and qualification testing.

I support the complete sealing-solution lifecycle — from service-condition mapping and seal-geometry selection to virtual prototyping, physical validation, manufacturing implementation, and field-performance assessment.

CORE CAPABILITIES

Sealing technologies and critical applications: Extensive experience with static sealing configurations — including O-rings, elastomeric gaskets, face seals, and high-pressure backup rings — alongside dynamic reciprocating seals, rotary lip seals, packer elements, guide components, and custom-engineered geometries. Application experience covers demanding operating environments, including downhole drilling and completion tools, wellhead assemblies, connectors, riser systems, manifolds, production packers, plugs, safety valves, ROVs, flow control devices, pigging systems, subsea production systems, hydrogen infrastructure, CO₂ capture and storage, and geothermal completions.

Seal and gland hardware design: Application of first-principles mechanical design and recognized standards (including SAE AS568, ISO 3601, and proprietary engineering practices) to optimize sealing interfaces. Systematic evaluation of the interplay between gland geometry, groove fill, initial assembly squeeze, long-term compression-set allowance, and residual contact pressure. Precise specification of extrusion-gap clearances, anti-extrusion backup rings, differential thermal expansion compensation, tolerance stack-ups, and mating-surface finishes to maintain seal integrity over targeted service lifespans.

End-to-end lifecycle engineering: Execution of the full sealing-solution lifecycle, progressing from operating-envelope definition and material–geometry pairing through CAD design, nonlinear FEA validation, prototype fabrication, qualification testing, production handover, and operational failure investigation with corrective action.

Mechanical interfaces, CAD, and GD&T: Proficiency in 3D CAD platforms (Onshape, SolidWorks) for seal profile modeling, gland design, and mechanical assembly integration. Production and detailed review of manufacturing drawings, specifying critical surface-finish parameters, lead-in chamfers, machining tolerances, and Geometric Dimensioning and Tolerancing (GD&T) to ensure proper installation and repeatable sealing performance.

Nonlinear simulation and virtual prototyping: Application of nonlinear FEA and calibrated constitutive polymer models to evaluate seal deformation, contact-pressure distribution, extrusion behavior, and stress relaxation during assembly, high-pressure energization, and thermal cycling. Use of virtual prototyping to identify leakage risks, optimize component topology, and reduce physical tooling iterations prior to qualification testing.

I use nonlinear finite element analysis (FEA) to design, evaluate, and optimize elastomeric and plastic solutions, establishing virtual prototyping workflows before committing capital to tooling fabrication or physical testing.

My work is grounded in solid mechanics and polymer physics, incorporating finite-strain kinematics, hyperelasticity, near-incompressibility, viscoelasticity and viscoplasticity, as well as the transient, rate-, pressure-, and temperature-dependent response of polymers under demanding operating conditions.

CORE CAPABILITIES

Constitutive material modeling and parameter calibration: Selection, fitting, and calibration of advanced constitutive material models against experimental test data to capture the nonlinear, path-dependent response of polymers. Extensive practical experience calibrating models for elastomeric and thermoplastic materials, including Bergström-Boyce-Mullins (BBM), Three-Network Model and Viscoplastic (TNM/TNV), Parallel Rheological Framework (PRF), and Johnson-Cook (JC) formulations.

Component-driven inverse design for formulation: Development and implementation of inverse-design frameworks that couple parametric FEA with Design of Experiments (DoE) of component topology and constitutive parameters. Translation of mechanical component performance targets into explicit constitutive targets, directly guiding polymer formulation and compound optimization.

Nonlinear structural and contact simulation: Modeling of finite deformations, pressure energization, geometric nonlinearities, and multi-body contact interactions. Accurate simulation of friction, sliding, changing contact regions, and complex mechanical interfaces with adjacent metal hardware and extrusion clearances.

Sealing integrity and failure risk evaluation: Quantitative evaluation of contact-pressure distribution, sealing interfacial integrity, reaction forces, and localized stress and strain concentrations. Accurate prediction of seal extrusion risk, nibbling, and critical failure locations under initial assembly preload, working pressure cycles, and thermal swings.

Time-dependent and viscoelastic behavior: Numerical analysis of sustained compression, stress relaxation, and creep phenomena. Tracking the long-term decay of contact stress and sealing force over extended operational durations, thermal aging cycles, and dynamic pressure variations.

Coupled thermal-structural multiphysics analysis: Execution of coupled multiphysics analyses that integrate thermal gradients, heat transfer, and nonlinear structural mechanics. Application of representative thermal, pressure, and displacement boundary conditions to assess thermal expansion differentials, contact-pressure shifts, and structural durability under severe HPHT conditions.

Test-driven model verification: Systematic validation of numerical predictions against component-level physical test data, strain measurements, and deformation profiles. Verification that calibrated constitutive material models and boundary assumptions remain physically representative well beyond the baseline calibration envelope.

Simulation platforms and computational tools: Expert utilization of advanced engineering simulation and material calibration software packages, including Ansys Workbench/Mechanical, Ansys Discovery, MCalibration, and PolyUMod.

My experience spans 25 years of continuous hands-on planning, design, execution, and interpretation of analytical and physical testing for vulcanized rubbers, thermoplastic elastomers, engineering thermoplastics, fluoropolymers, thermosets, composites, adhesives, coatings, fibers, and macromolecular solutions.

I bring extensive working knowledge of ISO, ASTM, DIN, and IEC standards for polymeric materials, selecting and adapting test methods according to material type, component geometry, service conditions, qualification requirements, and the technical question under investigation. My experience also includes applying scientific analytical techniques beyond standardized methods, with measurement conditions tailored to the material and the investigation.

I follow, perform, and design complete test programs covering specimen configuration, controls, conditioning and exposure environments, test temperatures, loading conditions, duration, replicates, acceptance criteria, and data-recording requirements. This also includes developing, validating, and documenting proprietary test methods where existing standards do not adequately address the required material property, performance characteristic, or measurement task.

I am experienced in comparative and interlaboratory testing, including round-robin program design, evaluation of between-laboratory precision in accordance with ISO 5725, and interpretation of reproducibility results for method validation and laboratory-accreditation scopes.

My expertise extends to polymer specimen preparation using cutting-die punching, CNC machining, sectioning, precision cutting, and extraction from finished components, with careful control of dimensions, orientation, surface condition, and preparation-induced damage. My approach integrates mechanical, thermal, spectroscopic, microscopic, tribological, and chemical evidence to characterize materials, compare candidates, investigate failures, and support technically defensible engineering decisions.

CORE CAPABILITIES

Mechanical testing: Tensile, compressive, flexural, tear, and shear testing of rubbers, elastomers, plastics, thermosets, composites, and components using standardized and custom profiles. Testing conducted across sub-ambient, ambient, and elevated temperatures using integrated environmental chambers. Evaluation of modulus, strength, load-bearing performance, tear strength, hardness, creep, cold flow, and impact resistance using relevant ISO and ASTM methods. Hands-on operation of Instron, ZwickRoell and Tinius Olsen testing frames, configuring control software for standardized methods as well as custom multi-step loading protocols. Extensive experience with contact and advanced video extensometers for strain tracking, design and fabrication of custom test fixtures, and testing designed to support constitutive material modeling and component failure validation. Method examples: ISO 37, ISO 527, ISO 7743, ISO 604, ISO 178, ISO 815, ISO 34, ISO 48, ISO 2039, ASTM D412, ASTM D638, ASTM D1414, ASTM D790, ASTM D785, ASTM D2240, ASTM D575, ASTM D695, ASTM D395, ASTM D624, DIN 53504.

Long-term and sealing performance: Time-dependent testing and analysis of permanent deformation, force decay, compression set, sealing-force retention, viscoelastic response, stress relaxation, creep, dimensional stability, and service-life risks under controlled mechanical, thermal, chemical, and environmental conditions. Method examples: ISO 3384, ISO 899, ISO 815, ASTM D2990, ASTM D395.

Thermal analysis: Characterization of phase transitions, glass transition, curing, crystallinity, heat capacity, thermal conductivity, thermal history and its effects, degradation, volatile and filler content, storage and loss moduli, damping, thermal expansion, softening behavior, and thermomechanical stability using DSC, TGA, HFM, SDT, DMA, and TMA. Hands-on operation of Waters TA Instruments thermal analyzers. Method examples: ISO 11357, ISO 11358, ISO 6721, ISO 11359, and relevant ASTM methods.

Spectroscopic and chemical analysis: Polymer identification, compound fingerprinting, reverse engineering, contamination assessment, oxidation and degradation analysis, chemical change evaluation, and chemometric spectral analysis using FTIR, NMR, and UV–Vis spectroscopy.

Mass spectrometry and chromatography: Identification of polymer matrices, copolymers, additives, plasticizers, degradation products, volatile species, and outgassing products using Py-GC/MS and QMS. Determination of molecular-weight distribution, average molecular weights, dispersity, polymer architecture, batch consistency, and molecular degradation using GPC/SEC.

Tribological testing: Evaluation of wear, friction, running-in behavior, abrasion resistance, static and dynamic coefficient of friction, surface energy, surface-treatment effects using pin-on-disc, abrasion, and coefficient of friction measurements (ASTM G99, ISO 4649, and application-specific methods).

Microscopy and imaging: Examination and documentation of inclusions, contamination, fracture surfaces, interfaces, wear mechanisms, processing-related structures, manufactured features, and microstructural characteristics using optical, polarized optical, digital, macro, and scanning electron microscopy.

Elemental analysis: Qualitative and semi-quantitative identification of fillers, pigments, particles, residues, deposits, corrosion-related species, contaminants, and other inorganic constituents using LIBS and EDS/EDX.

Surface analysis: Assessment of surface wettability by contact angle goniometry and characterization of surface profiles and topography using stylus profilometers and optical 3D surface profiling.

Electrical properties characterization: Evaluation of electrical insulation and conductive behavior of elastomeric and thermoplastic materials across varying thermal and environmental conditions. Quantitative determination of volume and surface resistivity, dielectric breakdown voltage, dielectric strength, relative permittivity (dielectric constant), and dissipation factor. Method examples: IEC 62631, ASTM D257, ASTM D149, ASTM D150, ISO 1853, and ISO 2878.

Special performance testing: Evaluation of low-temperature flexibility, brittle-point behavior, torsional stiffness, rebound resilience, damping, heat-generation tendency, dielectric properties, volume and surface resistivity, gas transmission, permeability, diffusion, solubility, decompression risk, and gas-service suitability using TR, Gehman, rebound, electrical, and permeability tests. Method examples: ISO 2921, ISO 812, ISO 1432, ISO 4662, ASTM D1434, and related methods.

I bring 12 years of experience managing R&D laboratories that support materials development, product qualification, quality assurance, manufacturing, and failure analysis.

My work translates technical and business needs into safe, efficient laboratory operations that produce reliable evidence for engineering and commercial decisions.

I've established two R&D laboratory facilities from the ground up for Norway-based engineering companies, strengthening their ability to provide materials expertise and technical support to customers across the energy sector.

CORE CAPABILITIES

Capability planning and facility development: Translation of technical and commercial requirements into capability roadmaps, facility layouts, investment priorities, and phased implementation plans. Identification of capability gaps and development of scalable testing resources for evolving R&D, qualification, and customer needs.

Equipment benchmarking and procurement: Benchmarking, specification, sourcing, negotiation, commissioning, and integration of thermal, spectroscopic, mechanical, tribological, microscopic, dimensional, and surface-characterization equipment. Supplier evaluation, purchasing specifications, acceptance testing, operator training, service support, and calibration planning.

Laboratory operations and leadership: Management of workloads, personnel, technical training, safety, budgets, consumables, maintenance, calibration schedules, metrological traceability, and continuous improvement. Prioritization of competing demands from R&D, product development, qualification, manufacturing, supplier evaluation, and failure investigations.

Test methods and technical procedures: Selection and adaptation of ISO, ASTM, DIN, and other relevant standards, alongside development, validation, and documentation of proprietary methods for specialized measurements. Establishment of consistent procedures for specimen preparation, equipment operation, testing, data analysis, technical review, and reporting.

External laboratory partnerships: Development and management of qualified third-party laboratory relationships for specialized high-pressure and high-temperature exposure, rapid gas decompression, and advanced characterization. Coordination of qualification, scopes of work, protocol review, data assessment, and subcontracted testing.

LIMS, traceability, and data integrity: Definition of laboratory information management requirements and workflows for sample registration, batch and lot traceability, test scheduling, instrument data handling, result validation, controlled reporting, audit trails, and secure record retention.

ISO/IEC 17025-aligned practices: Application of principles covering personnel competence, controlled documentation, method validation, measurement uncertainty, equipment calibration, metrological traceability, result assurance, and management of nonconforming work to improve data integrity and confidence in reported results.

Technical and commercial impact: Creation of sustainable in-house capabilities that shortened qualification cycles, reduced reliance on external testing, protected proprietary information, and strengthened support for customers, R&D, manufacturing, supplier qualification, and failure analysis.

I apply reliability engineering principles and polymer degradation science to evaluate the suitability, durability, and operating life of elastomeric and thermoplastic components in critical service environments.

My approach integrates structured qualification testing, accelerated aging methodologies, statistical reliability analysis, and materials characterization to deliver technically defensible guidance for design validation, asset integrity, and maintenance planning.

CORE CAPABILITIES

Qualification program design and execution: Definition and supervision of material and component qualification programs, from initial screening and design validation through production qualification and ongoing surveillance. Establishment of representative test conditions, statistical sample sizes, controls, acceptance criteria, and qualification dossiers in accordance with NORSOK M-710, ISO 23936, ISO 1817, ASTM D471, relevant API requirements, and applicable NACE protocols.

Compatibility and multivariable exposure studies: Design of fluid-compatibility and environmental-aging programs covering complex combinations of media, temperature, pressure, exposure duration, and cycling. Evaluation of resistance to hydrocarbons, produced water, completion brines, drilling and subsea-control fluids, stimulation chemicals, steam, CO₂, acids, and sour-gas mixtures through changes in physical and mechanical properties, viscoelastic response, permeability, chemical structure, and functional integrity across energy and broader industrial applications.

Experimental strategy and technical oversight: Specification of test media, concentrations, specimen configurations, replicates, inspection intervals, data requirements, and functional acceptance limits. Technical direction of custom autoclave testing, laboratory selection, scopes of work, protocol review, and post-test characterization, qualification reporting, and operator technical engagement. Application of DoE, MSA, and DFMEA/PFMEA to investigate formulation–processing interactions, modification, manufacturing variability, and reliability-critical defects.

Degradation mechanism assessment: Systematic evaluation of thermo-oxidative aging, hydrolysis, chemical swelling, compositional and structural changes, and combined hygro-thermo-mechanical deterioration. Integration of mechanical, thermal, spectroscopic, microscopic, and dimensional data to distinguish reversible physical phenomena from irreversible chemical degradation and determine dominant failure mechanisms.

Accelerated aging and reliability modeling: Application of statistical frameworks and degradation methodologies for (H)ALT lifetime estimation, notably Accelerated Destructive Degradation Testing (ADDT), repeated-measures degradation analysis, censored-data methods, and Weibull or other life distributions. Implementation of Arrhenius/Eyring relationships, time–temperature superposition (TTS), and Williams–Landel–Ferry (WLF) modelling, fatigue models, and cumulative-damage approaches where scientifically justified. Rigorous validation of acceleration assumptions, mechanism consistency, laboratory-to-field extrapolation, and reliability-in-design principles while accounting for the physical limits.

Lifetime prediction and end-of-life criteria: Analysis of property evolution, degradation rates, experimental scatter, confidence intervals, and functional failure thresholds to quantify remaining operating margins. Development of defensible end-of-life, storage-life, expiry, and pot-life criteria to support life extension, inspection intervals, replacement schedules, and retirement strategies for seals and other polymer components, with explicit uncertainty and extrapolation limits.

Reliability tools and engineering implementation: Utilization of the JMP Reliability and SAS STIPS data analytics platforms in conjunction with materials science interpretation to model component reliability. Translation of analytical results, underlying assumptions, and uncertainties into product specifications, qualification envelopes, operating limits, and customer recommendations. Selection of appropriate reliability analytics platforms — including Life Distribution, Fit Life by X, Fit Parametric Survival, Destructive Degradation, Repeated Measures Degradation, Degradation, Cumulative Damage, and Fatigue Model — according to experimental design and engineering objectives.

I apply polymer science, engineering principles, and structured problem-solving methodologies to determine why polymer/nonmetallic components fail in service.

My investigations identify underlying failure mechanisms, differentiate root causes from secondary operational damage, and translate forensic findings into actionable corrective actions, design improvements, and asset-integrity decisions.

CORE CAPABILITIES

Systematic root-cause methodology: Leadership of evidence preservation, analytical testing, hypothesis validation, and root cause determination using structured problem-solving frameworks. Direction of critical-service investigations involving functionality loss, qualification nonconformances, and warranty claims while rigorously separating verified mechanisms from secondary damage and uncertainties.

Service history and operational reconstruction: Comprehensive review of material specifications, compound chemistry, manufacturing records, installation logs, operating envelopes, fluid exposures, and maintenance histories. Systematic comparison of failed components against unexposed reference specimens and baseline engineering drawings to trace the progression of degradation.

Forensic analytical strategy: Formulation of fit-for-purpose analytical workflows utilizing complementary characterization techniques, including FTIR, DSC, TGA, DMA, optical microscopy, LIBS, SEM-EDS, and Py-GC/MS. Collective interpretation of thermal, spectroscopic, and morphological data to distinguish reversible physical phenomena from irreversible chemical degradation.

Targeted experimental and numerical hypothesis verification: Design of controlled bench-scale verification experiments to test and validate proposed failure hypotheses. Integration of physical component testing and nonlinear FEA to evaluate operating and assembly-induced damage.

Nonmetallic failure analysis: Identification and root-cause characterization of degradation and damage mechanisms across elastomers, engineering thermoplastics, fluoropolymers, and composites in critical energy service. Covers elastomer-specific modes — such as rapid gas decompression (RGD), extrusion, compression set, stress relaxation, thermal oxidation, sour-fluid attack, and chemical swelling — alongside thermoplastic and composite failures, including environmental stress cracking (ESC), creep, cold flow, dynamic fatigue, matrix microcracking, and interlaminar delamination.

Manufacturing, assembly, and hardware defect evaluation: Identification of processing anomalies, including undercure, overcure, molding flaws, contamination, and machining damage. Critical evaluation of mating hardware tolerances, gland dimensions, surface finishes, lead-in chamfers, lubrication adequacy, and installation tooling to determine mechanical and assembly contributions to failure.

CAPA, risk mitigation, and lifecycle improvement: Translation of forensic findings into actionable Corrective and Preventive Action (CAPA) plans, revised material and tooling specifications, upgraded manufacturing controls, and updated qualification programs. Communication of defensible engineering recommendations to support FMEA/FMECA, fitness-for-service (FFS) assessments, and inspection schedules.

I combine established quality management frameworks with oilfield-specific QA/QC requirements to ensure the reliability, integrity, and compliance of nonmetallic materials and sealing products.

I implement data-driven quality engineering across the polymer lifecycle — from incoming raw materials and compound verification through processing, qualification, supplier surveillance, and product release.

My background integrates direct working knowledge of sector-specific QA/QC frameworks, including NORSOK M-710, ISO 23936, and relevant API and operator specifications governing elastomeric and thermoplastic components in critical oil, gas, and subsea applications.

CORE CAPABILITIES

Oilfield nonmetallics QA/QC frameworks: Implementation of quality assurance and quality control requirements defined in NORSOK M-710, ISO 23936, API 6A, API 16A, and operator technical requirements.

Quality management frameworks and standards: Knowledge of ISO 9001 and ISO/IEC 17025 principles to establish robust quality systems, maintain technical competence, and support audit readiness.

Lean Six Sigma and process capability: Execution of DMAIC projects to improve processes and resolve complex quality nonconformances. Utilization of Measurement System Analysis, process capability metrics, hypothesis testing, Design of Experiments (DoE), and Statistical Process Control (SPC) with documented control plans.

Design for quality and method validation: Utilization of DMADV methodology to design and validate analytical and mechanical test methods, translating critical-to-quality (CTQ) operational demands into clear, measurable material specifications and standardized testing protocols.

Risk management and FMEA: Facilitation of Design and Process Failure Mode and Effects Analyses (DFMEA and PFMEA) for nonmetallic seals and assemblies, evaluating failure modes, scoring operational risks, and introducing proactive quality controls before production or qualification testing.

Structured problem-solving and CAPA: Investigation and resolution of internal, customer, manufacturing, and supplier nonconformances using systematic frameworks. Formulation of root-cause corrective and preventive actions with rigorous verification of long-term effectiveness.

I combine engineering computation, applied statistics, and quantitative analysis to interpret complex experimental and operational datasets, producing traceable calculations, defensible conclusions, and clear engineering recommendations.

CORE CAPABILITIES

Engineering computation and data integrity: Development of structured calculation workflows for stress–strain behavior, contact mechanics, assembly forces, dimensional stack-up, thermal expansion, permeation, diffusion, and polymer structure–property relationships.

Data quality and measurement confidence: Evaluation of experimental datasets for outliers, distributional fit, variance, repeatability, and reproducibility before applying statistical models or drawing conclusions. Assessment of measurement system capability to quantify experimental variation and establish confidence bounds for reported results.

Design of experiments and process optimization: Master-level application of structured DoE strategies for material formulation, process development, manufacturing optimization, and virtual simulations. Implementation of sequential experimentation workflows, advancing from initial screening programs (including Definitive Screening Designs and fractional factorials) through design augmentation, to advanced response surface modeling. Application of custom and optimal designs (D- and I-optimal criteria) alongside specialized mixture designs to resolve complex interactions, navigate formulation constraints, and optimize multi-response performance with high experimental efficiency.

Formulation and process optimization: Optimization of polymer compounds and processing systems to achieve targeted combinations of hardness, compression set, tensile properties, curing behavior, and dimensional stability. Experience includes elastomer compounding, molding cycles for rubber compounds, rubber-to-metal bonding processes, plastic welding parameters, machining process optimization, and some more.

Confirmation testing and model validation: Design and execution of physical confirmation trials to verify that predicted optimum conditions deliver the required responses within defined confidence bounds. Assessment of model adequacy, prediction error, repeatability, and practical significance.

Statistical modeling and reliability analysis: Application of regression, hypothesis testing, multivariate analysis, classification, and mixed-effects models to material, process, lifetime estimation, and multi-batch datasets. Use of degradation models, accelerated-life methods, and reliability distributions to assess property retention, failure probability, and expected service life under relevant operating conditions.

Engineering judgment and analytical platforms: Clear distinction between statistical significance and practical engineering relevance, with explicit consideration of variability, sample size limitations, model assumptions, confidence, and extrapolation risk.

Advanced user of JMP, Minitab, and OriginPro for data analytics.

I evaluate sustainable polymer materials and technologies across their lifecycle, drawing on deep knowledge of polymer chemistry, formulation, processing, degradation, and recovery to distinguish meaningful environmental improvements from isolated material attributes.

I translate sustainability objectives into technically sound material choices and development priorities, balancing renewable feedstocks, safer chemistry, circularity, and resource efficiency with functional performance, manufacturing feasibility, and long-term durability.

CORE CAPABILITIES

Lifecycle thinking and sustainability trade-offs: Deep understanding of sustainability across raw-material sourcing, polymer synthesis, formulation, manufacturing, service life, and end-of-life management. Knowledge of lifecycle assessment (LCA) principles and the relationships between carbon footprint, resource consumption, chemical hazards, durability, and recovery potential. Recognition that meaningful comparisons require equivalent functional performance, realistic service-life assumptions, and consideration of environmental burdens across the entire lifecycle.

Sustainable elastomer formulation and compounding: Deep expertise in elastomer formulation, compounding, and formulation–processing–property relationships, including polymer selection, fillers, plasticizers, stabilizers, processing aids, and curing systems. Strong understanding of how REACH requirements, substance restrictions, and evolving PFAS regulatory considerations influence ingredient selection and material-development priorities. Knowledge of substitution challenges, including effects on cure behavior, processability, compatibility, emissions, mechanical performance, and long-term durability.

Biobased feedstocks and sustainable technology development: Research and technology experience in more sustainable polymer chemistry and technologies, with a proven track record of activities involving biobased feedstocks and sustainable material solutions. Knowledge of biodegradable polymers and the influence of molecular architecture, formulation, and environmental conditions on degradation behavior. Clear distinction between biobased origin, biodegradability, compostability, recyclability, and demonstrated environmental benefit.

Safer chemistry and responsible material substitution: In-depth understanding of green-chemistry principles and opportunities to reduce hazardous substances, undesirable emissions, and environmental persistence in polymer materials and processing. Knowledge of alternative ingredients and technologies, including their implications for chemical stability, migration, degradation products, and functional performance. Awareness of regrettable substitution risks and the need to consider hazard, exposure, technical suitability, and lifecycle consequences together.

Circular materials and resource-efficient technologies: Broad knowledge of mechanical recycling, chemical recycling and depolymerization, elastomer reclaim, and recovery challenges for thermosets and composites. Understanding of how crosslinking, mixed-material construction, fillers, contamination, and processing-induced degradation affect recyclability and recovered-material quality. Knowledge of recycled-content incorporation, production-waste reintegration, material-efficient processing, and the importance of repairability, disassembly, and viable recovery infrastructure.

Durability as a sustainability enabler: Deep expertise in polymer degradation, aging, failure analysis, and reliability engineering as foundations for understanding sustainable product performance. Knowledge of the trade-offs between service-life extension, material consumption, replacement frequency, recyclability, and controlled degradation. Understanding of how formulation, processing quality, environmental resistance, and functional failure thresholds influence the lifetime environmental impact of polymer-based products.

I lead materials and component innovation from opportunity identification through development, qualification, industrialization, and commercial implementation.

My experience combines polymer expertise with structured project-management, portfolio management, risk management, and technology management practices for energy-industry applications.

CORE CAPABILITIES

End-to-end R&D and NPD delivery: Management of research and new product development projects from customer requirements, concept definition, and feasibility assessment through material screening, prototyping, iterative validation, qualification, production transfer, and launch.

Structured development governance: Application of Stage Gate and Agile approaches according to project maturity, complexity, and technical risk. Management of project charters, development roadmaps, milestones, budgets, resource plans, risk registers, and decision gates.

Cross-functional project execution: Coordination of materials science, engineering, simulation, laboratory testing, manufacturing, quality, supply-chain, and commercial functions to translate technical requirements into qualified and manufacturable solutions.

Technology planning and portfolio management: Alignment of research priorities and development roadmaps with customer needs, market opportunities, regulatory developments, and product-portfolio gaps. Prioritization of projects according to strategic value, technical feasibility, commercial potential, and resource requirements.

Technology evaluation and scouting: Assessment of emerging polymer chemistries, additives, processing methods, and competing material technologies through literature reviews, patent information, supplier engagement, benchmarking, and market intelligence.

Readiness and risk assessment: Use of technology readiness assessments, technical gap analysis, comparative testing, benchmarking, and risk evaluation to support investment, continuation, partnership, or termination decisions.

Collaborative R&D and external programs: Development of project proposals and coordination of collaborative R&D with customers, research institutes, suppliers, and international industry partners.

I produce clear and technically defensible documentation that converts complex material, testing, simulation, qualification, and failure analysis data into actionable engineering conclusions.

My technical writing supports engineering, quality, commercial, project, certification, and management decisions across materials development and energy industry applications.

CORE CAPABILITIES

Test and qualification reporting: Preparation of material and component test procedures and comprehensive reports covering test methods, conditions, raw and processed data, statistical analysis, measurement uncertainty, interpretation, acceptance criteria, and compliance conclusions. Compilation of qualification dossiers and inspection evidence to support customer, operator, and certification-body scrutiny.

Technical assessments: Authoring of concise technical memoranda addressing material selection, chemical compatibility, service-life risks, simulation outcomes, failure investigations, nonconformances, and prioritized engineering actions.

Engineering reports: Production of comprehensive R&D project deliverables, application studies, standards guidance, and technical white papers for internal knowledge transfer, client education, technical review, and external publication.

Compliance and risk documentation: Preparation of technically defensible deviation and waiver requests, alternative-compliance assessments, FMEA records, and formal documentation supporting engineering, quality, and regulatory decisions.

Controlled technical procedures: Development, standardization, and maintenance of SOPs, laboratory test methods, work instructions, material specifications, and reporting templates. Establishment of clear procedural ownership, acceptance limits, data-recording requirements, and disciplined revision control.

Audience-focused technical communication: Structuring complex technical arguments and tailoring documentation depth for cross-functional stakeholders — including engineering specialists, laboratory teams, procurement, certification authorities, and executive management — without compromising technical rigor or accuracy.

Scientific dissemination and knowledge transfer: Articulation of advanced scientific principles and experimental findings through technical presentations, peer-reviewed publications, industry conference contributions, customer training sessions, and structured internal training curricula.

I combine interdisciplinary engineering thinking, team leadership experience, and digital fluency to strengthen technical execution, organizational capability, and cross-functional decision-making.

My background bridges materials science, applied solid mechanics, commercial strategy, and modern digital workflows, enabling effective collaboration across engineering, manufacture, laboratory, and business environments.

CORE CAPABILITIES

Interdisciplinary problem-solving: Integration of polymer science, applied chemistry, physics, thermodynamics, solid mechanics, and data analytics to address complex material and component challenges. Application of systems thinking alongside structured reasoning to correlate diverse experimental, numerical, and operational evidence across disciplinary boundaries.

Business acumen: In-depth understanding of the commercial and operational drivers of technology-led manufacturing organizations, with specialized insight into the high-performance nonmetallic sealing market for energy and general-industry sectors. Clear perspective on OEM, tier-one, and operator supply chains, long qualification cycles, competitive differentiation, risk-managed pricing, and the alignment of materials innovation with client value propositions and sustainable profitability.

Innovation and technology commercialization: Translation of identified technical bottlenecks and market opportunities into structured R&D and NPD initiatives, supporting programs from concept through qualification and commercial deployment. Practical awareness of patent landscapes, freedom-to-operate evaluations, trade-secret protection, and proprietary know-how while navigating technical uncertainty and resource constraints.

Team leadership, mentorship, and supervision: Leadership and coordination of small technical teams, managing priorities, delegating project tasks, and supporting professional development through constructive feedback. Experience includes eight years in university academia, tutoring undergraduate and postgraduate students during laboratory assignments, and directing thesis-related experimental and analytical research.

Digital engineering and applied AI solutions: Practical development and deployment of AI-assisted workflows, custom applications, and interactive applets that streamline engineering tasks and business operations. Creation of lightweight web and desktop tools alongside AI-driven solutions for intelligent file repositories, custom LIMS applets, interactive performance dashboards, and automated technical inquiry screening.

Self-sufficient technical toolset: Independent utilization of modern engineering and analytical tools spanning CAD, scientific computing, applied statistical packages, nonlinear FEA, and graphic visualization to organize projects, analyze complex data, and produce high-impact engineering deliverables.

Cross-cultural and international collaboration: Proven ability to navigate Norwegian and international business cultures, successfully aligning diverse project stakeholders across organizational and geographic boundaries. Professional communication capabilities include native Polish, full professional proficiency in English, and conversational proficiency in Norwegian.