{"schemaVersion":"1.0","exportedAt":"2026-05-15T12:39:40.458Z","occupation":{"soc":"19-2032.00","title":"Materials Scientists","group":"Life, Physical & Social Science","sector":"54","jobZone":4,"jobZoneInferred":false},"framework":{"version":"v.26.05","description":"","contextCovered":"This framework covers laboratory research, materials testing and failure analysis, product development, technical communication, production oversight, and research leadership within industrial, government, and academic materials science environments at Job Zone 4 preparation level.","levels":{"emerging":{"label":"Emerging","statements":["Material samples and standard test protocols — execute routine mechanical and physical property tests under direct supervision in a laboratory setting.","Metal specimens under tension, compression, and shear — perform prescribed tolerance tests following established procedures with senior scientist oversight.","Laboratory instruments and analytical software — operate and record data outputs under guidance during materials characterization experiments.","Research literature and technical reports — read and summarize findings on metals, alloys, polymers, and ceramics to support ongoing team projects.","Standard spreadsheet and word processing tools — organize experimental data and draft preliminary sections of technical reports as directed.","Material property specifications — compare test results against defined benchmarks for mechanical strength and corrosion resistance with supervisor review.","Laboratory safety protocols and equipment checklists — follow established procedures to ensure compliant and safe handling of materials samples.","Experimental observations and measured data — document findings accurately in laboratory notebooks and electronic databases under researcher direction.","Introductory chemistry and physics principles — apply foundational knowledge to interpret basic material behavior observed during supervised testing.","Team meetings and project briefings — listen actively and ask clarifying questions to build understanding of materials science project goals and methods."]},"developing":{"label":"Developing","statements":["Metals and alloy samples — conduct mechanical strength, ductility, and corrosion resistance tests with limited oversight and interpret results against applicable specifications.","Experimental plans and feasibility protocols — design routine laboratory experiments to evaluate material properties and processing techniques in a production-support environment.","Analytical and scientific software platforms — analyze material characterization data, identify trends, and generate visualizations to support research conclusions.","Technical reports and manuscripts — draft clear, well-structured documents for internal scientists and external sponsors with moderate editorial input.","Material failure investigations — apply deductive and inductive reasoning to determine probable causes of metal failures under tension, compression, or shear loading.","Existing material formulations — adapt composition or processing parameters to improve specific properties such as magnetic response or heat resistance for familiar applications.","Database and query tools — retrieve, filter, and cross-reference materials property data to support product development decisions.","Laboratory experiments in progress — monitor equipment performance, track procedural milestones, and flag deviations from planned protocols to project leads.","Multidisciplinary project teams — communicate materials test findings clearly in both written summaries and verbal presentations to colleagues across engineering and science functions.","New developments in materials science literature — apply active learning strategies to integrate emerging methods and findings into routine laboratory practice."]},"proficient":{"label":"Proficient","statements":["Research programs on metals, alloys, polymers, and ceramics — independently design and execute comprehensive investigations to obtain data supporting new product development or product enhancement.","Complex material failure scenarios — autonomously diagnose root causes by integrating mechanical testing data, microstructural analysis, and environmental exposure history.","Novel material combinations and processing routes — develop and validate approaches for achieving specific properties—such as high strength-to-weight ratios or extreme thermal resistance—for demanding applications.","Material selection recommendations — provide authoritative guidance on optimal materials for reliable performance across varied service environments, including corrosive or high-load conditions.","Full-scope technical manuscripts, proposals, and manuals — author publication-quality documents independently, tailored to audiences ranging from peer scientists to non-technical sponsors.","Laboratory feasibility studies — plan and lead multiphase experiments confirming viability of advanced production techniques, adjusting methods in response to non-routine findings.","Production monitoring responsibilities — oversee manufacturing processes to ensure efficient equipment use, adherence to revised specifications, and on-time, on-budget project delivery.","Cross-functional problem-solving — apply systems evaluation and operations analysis to identify process inefficiencies and recommend evidence-based improvements in materials production.","Advanced analytical and development software environments — leverage modeling, simulation, and data analysis tools to accelerate materials characterization and prediction of performance outcomes.","Junior scientists and technicians — mentor developing staff on experimental design, data interpretation, and technical communication within an R&D or manufacturing context."]},"advanced":{"label":"Advanced","statements":["Organizational research strategy for materials science — set long-range direction and define priority research areas aligned with business and technology development goals.","Cross-departmental materials development programs — lead multidisciplinary teams spanning research, engineering, and production to deliver breakthrough material solutions at organizational scale.","Enterprise-wide materials selection and qualification standards — establish and govern frameworks ensuring consistent, reliable material performance across all product lines and application environments.","Major technical proposals and funding applications — direct the preparation and presentation of high-stakes documents to executive sponsors, government agencies, and strategic partners.","Organizational capability in analytical methods and scientific software — champion adoption of advanced tools and platforms, setting standards for data quality and computational practice across the function.","Complex resource and budget allocation for laboratory operations — oversee production process monitoring systems and make strategic decisions to optimize efficiency, compliance, and project throughput.","Talent development pipelines in materials science — design and implement mentoring, training, and learning strategies that build organizational expertise from emerging to proficient levels.","External scientific and industry communities — represent the organization at conferences, on standards bodies, and in peer-reviewed publications, shaping field-wide knowledge and practice.","Ambiguous, high-stakes materials challenges — exercise senior judgment and decision-making to evaluate novel risk scenarios, balance competing technical and business trade-offs, and commit to strategic courses of action.","Innovation culture within materials research teams — model intellectual curiosity and systematic rigor, creating an environment where experimentation, evidence-based risk-taking, and continuous learning are organizational norms."]}}},"sources":{"onet":"v30.2 (CC BY 4.0)","crosswalk":"https://skillscrosswalk.com","generator":"LER.me"},"attribution":"© EBSCOed"}