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RSC Content Type: Template / Tool

Downloadable asset such as WI templates, COPQ calculators.

  • Risk register

    A risk register is a structured document or database used to record, track, and update risks over time. It typically lists each identified risk along with key attributes such as description, likelihood, impact, owner, current controls, planned actions, and status. In industrial and regulated manufacturing environments it is a core tool for formal risk management.

    Typical contents of a risk register

    While formats vary, most risk registers capture at least the following information for each risk:

    • Risk ID or unique reference
    • Risk description, including cause and potential consequence
    • Category (for example: safety, quality, compliance, cybersecurity, supply chain)
    • Likelihood and impact ratings, often combined into a risk priority or score
    • Current controls or mitigations in place
    • Planned actions or additional mitigations, with target dates
    • Risk owner responsible for monitoring and follow-up
    • Status (for example: open, in progress, closed, accepted)
    • Review dates and notes from periodic reassessments

    Use in industrial and regulated environments

    In manufacturing operations, a risk register commonly supports:

    • Operational risk management, such as equipment failures, OT/IT downtime, or loss of utilities
    • Quality and compliance risks, including process deviations, data integrity issues, or nonconformances
    • Safety and environmental risks, alongside formal hazard analyses and safety studies
    • Cybersecurity and OT risks, for example unauthorized access to control systems or loss of manufacturing data
    • Supply chain and supplier risks, such as single-source materials or long lead times

    The risk register may be maintained as a controlled spreadsheet, a module in a quality or risk management system, or part of broader governance, risk, and compliance (GRC) tooling. It is typically referenced during audits, management reviews, and change control, and is updated when new risks are identified or when controls change.

    Common confusion

    • Risk register vs. risk assessment: A risk assessment is the process and analysis used to evaluate risks. The risk register is the ongoing record where those evaluated risks and their current status are logged.
    • Risk register vs. issue log: A risk register focuses on uncertain future events. An issue log records problems that have already occurred. In practice, issues may trigger new entries in the risk register.
    • Risk register vs. hazard log: A hazard log is often specific to safety or environmental hazards. A risk register is broader and can include safety, quality, cybersecurity, and business risks in one place.

  • characteristic list

    A characteristic list is a structured listing of the individual product or process characteristics that must be inspected, measured, or otherwise verified for a given part, assembly, or operation. It commonly appears in regulated manufacturing environments as part of first article inspection (FAI), in-process inspection, or final acceptance documentation.

    Each entry in a characteristic list typically corresponds to a specific requirement taken from a drawing, model, specification, or control plan. The list provides a clear reference for inspectors and operators so they know what to check, how to check it, and how to record results.

    Typical contents of a characteristic list

    While formats vary by industry and customer, a characteristic list usually includes:

    • A unique characteristic number (often linked to a ballooned drawing or model)
    • The requirement description (for example: dimension, geometric tolerance, material property, surface finish)
    • The nominal value and tolerance or acceptance criteria
    • Reference to the drawing zone or CAD feature
    • The inspection or verification method (for example: CMM, caliper, visual, functional test)
    • Sampling or frequency, if applicable
    • Fields for measured values, pass/fail status, and comments

    Use in aerospace and AS9102 / FAI

    In aerospace and other regulated industries, a characteristic list is a core element of AS9102 first article inspection and similar FAI processes. The list is often built directly from the ballooned drawing or model, with each balloon number mapped to a row in the list. This allows:

    • Traceability between design requirements and inspection records
    • Standardized inspection workflows across sites, suppliers, and programs
    • Consistent data structures for digital FAI, MES, PLM, or quality systems

    Operationally, the characteristic list may live in a spreadsheet, an FAI software tool, a QMS form, or within an MES inspection operation. In multi-site organizations, a “standard” characteristic list format is often defined, then local plants map their tools and numbering conventions into that structure.

    What a characteristic list is not

    A characteristic list is not the same as:

    • A full control plan, which usually covers process controls, reaction plans, and broader risk information
    • A process routing or traveler, which focuses on the sequence of operations rather than individual measured characteristics
    • A general checklist for work instructions, which may include tasks not tied to specific measurable characteristics

    Common confusion

    The term is sometimes used interchangeably with related concepts such as:

    • Ballooned characteristic list: explicitly tied to drawing balloons or CAD feature IDs
    • Inspection characteristic list or inspection plan: emphasizes the measurement and recording aspect

    In manufacturing and quality contexts, the common thread is that a characteristic list always refers to a structured, itemized set of requirements to be checked, not just a free-form description of the part.

    Link to standardized workflows

    When organizations standardize AS9102 or other inspection workflows across multiple sites, the characteristic list becomes a key artifact. A shared characteristic list structure allows different plants, software tools, and legacy systems to map inspection data into a consistent model while still supporting local constraints and customer-specific formats.

  • FAI package

    An FAI package is the complete set of first article inspection documentation compiled for a specific part number or assembly, typically in accordance with AS9102 in aerospace and other regulated manufacturing. It groups the required forms and objective evidence needed to demonstrate that a production process can consistently make a part that meets all approved design requirements.

    What an FAI package usually includes

    The exact contents can vary by customer, contract, or internal procedure, but an FAI package commonly includes:

    • AS9102 Forms 1, 2, and 3 (or equivalent internal forms) covering part information, materials and special processes, and detailed characteristic results
    • Ballooned or numbered drawings and models that link each design characteristic to an inspection result
    • Inspection records and measurement data (e.g., CMM reports, gage readings, surface finish and hardness results)
    • Certificates of conformance and material certificates (e.g., raw material, special processes, heat treatment, coatings, welding, NDT)
    • Process documentation that may be required to support traceability (e.g., routers, travelers, control plans, or work instructions)
    • Change-control records when applicable (e.g., engineering change notices, configuration baselines, or revision history)
    • Evidence of approvals, sign-offs, and dates associated with the FAI review and completion

    In digital environments, an FAI package may be stored and managed as a single record in an MES, QMS, PLM, or specialized FAI tool, with links to controlled documents and data sources.

    How FAI packages are used in operations

    • Qualification of production processes: The package documents that the initial or changed production configuration can meet all drawing and specification requirements.
    • Customer and regulator evidence: Customers, primes, and auditors commonly review sampled FAI packages during audits or source inspections to verify process control and documentation practices.
    • Baseline for future builds: The approved FAI package becomes a reference for subsequent production runs, engineering changes, and recurring FAIs.
    • Traceability and genealogy: FAI packages contribute to overall part history by linking parts, lots, processes, and materials to verified design requirements.

    What an FAI package is not

    • It is not routine in-process inspection for every lot or shipment, although it may reuse similar inspection methods.
    • It is not a full product qualification or certification in a regulatory sense; it is focused on verifying conformity to design and process capability for a defined configuration.
    • It is not limited to a single form or report; the term refers to the complete, organized set of all relevant FAI documentation.

    Common confusion

    • FAI vs. FAI package: “FAI” often refers to the inspection activity itself, while the “FAI package” is the documented evidence set that results from that activity.
    • AS9102 forms vs. package: The AS9102 forms (1, 2, 3) are part of an FAI package, but a complete package also includes supporting documents such as ballooned drawings, inspection data, and certificates.

    Link to AS9102 audit context

    In AS9100 or AS9102-focused audits, reviewers commonly sample FAI packages to confirm that first article inspections were performed per requirements, that all characteristics are accounted for, and that supporting evidence such as drawings, records, and certificates is complete and properly controlled.

  • Master batch record

    A master batch record is the approved, controlled template that defines how a specific product and batch size must be manufactured, tested, packaged, and documented. It describes the intended process before execution and serves as the reference against which individual batch manufacturing records are created and executed.

    What a master batch record includes

    In regulated manufacturing environments, such as pharmaceuticals or medical devices, a master batch record commonly includes:

    • Product identification and strength or variant
    • Defined batch size and allowable yield ranges
    • Bill of materials and component specifications
    • Detailed manufacturing instructions and operating parameters
    • Required equipment and line setup instructions
    • In-process controls and sampling plans
    • Quality control tests and acceptance criteria
    • Labeling, packaging, and storage instructions
    • Spaces or structures for recording critical data at execution time

    The master batch record is typically maintained under document control, with version history, approval signatures, and linkage to change control, validation, and quality risk assessments.

    Operational role

    Operationally, the master batch record:

    • Serves as the source document from which batch manufacturing records (BMRs) or batch production records (BPRs) are generated
    • Provides standardized, repeatable instructions across shifts, sites, or contract manufacturers
    • Acts as a reference for training, investigations, deviations, and audits
    • Can be implemented as paper forms, controlled PDFs, or electronic records in MES/EBR systems

    In electronic systems, the master batch record may be represented as an electronic recipe or workflow definition, including parameters, checks, and system-enforced sequences.

    What it is not

    A master batch record is not the executed record of a specific batch. It does not itself prove that a batch was manufactured according to instructions; that evidence is captured in the executed batch record derived from the master.

    Common confusion

    • Master batch record vs. batch manufacturing record (BMR) / batch production record (BPR): The master batch record is the template and specification. The BMR/BPR is the completed, batch-specific record showing what actually happened, who performed each step, and when.
    • Master batch record vs. standard operating procedure (SOP): An SOP describes how to perform a type of activity in general. A master batch record integrates product-specific instructions, quantities, parameters, and recording requirements for a particular product and batch size.

    Link to the source context

    In the context of pharma, where the term BMR is often used, the batch manufacturing record is the executed evidence for a specific batch. That BMR is generated from the master batch record, which defines the approved method and controls that every batch must follow.

  • RACI matrix

    A RACI matrix is a responsibility assignment chart used to clarify roles and decision rights for tasks, deliverables, or processes. The acronym RACI stands for Responsible, Accountable, Consulted, and Informed. It is commonly used in industrial operations, OT/IT projects, and quality or compliance initiatives to reduce ambiguity about who does what and who must be involved.

    Core elements of a RACI matrix

    A RACI matrix typically appears as a grid, with activities listed on one axis (such as process steps, project tasks, or documents) and roles or functions on the other (such as quality manager, production supervisor, ERP owner, or MES engineer). Each intersection is assigned one or more of the following:

    • Responsible (R): The role that performs the work to complete the task or produce the deliverable. There can be multiple responsible roles, but many organizations limit it to reduce confusion.
    • Accountable (A): The role that ultimately owns the outcome and ensures the task is completed correctly. Typically exactly one role is accountable for each task or deliverable.
    • Consulted (C): Roles that must be consulted before work is done or decisions are made. This is usually a two-way communication, for example between quality, engineering, and production.
    • Informed (I): Roles that must be kept informed after decisions are made or work is completed. This is usually one-way communication, such as sending status updates or final reports.

    Use in manufacturing and regulated environments

    In industrial and regulated settings, a RACI matrix is often used to document and communicate responsibilities for:

    • Quality processes such as nonconformance handling, CAPA workflows, FAI reviews, or inspection plans.
    • MES, ERP, or PLM projects, including configuration changes, data governance, and system integrations.
    • Change control for work instructions, routing changes, or document management.
    • Audit preparation and evidence collection across departments.
    • Maintenance, OT cybersecurity, and safety-related procedures where clear accountability is essential.

    Operationally, the RACI matrix is often referenced in procedure documents, project charters, and governance frameworks, and may be attached to controlled quality system documents as supporting evidence of role clarity.

    What a RACI matrix is not

    • It is not an organizational chart. It does not show reporting lines, only responsibilities for defined activities.
    • It is not a full project plan or schedule. It complements plans by clarifying who is involved, but does not replace timelines or resource plans.
    • It is not a detailed procedure. It sits alongside SOPs and work instructions, which describe how tasks are performed.

    Common confusion

    • RACI vs. responsibility matrix: In many organizations, the term “responsibility matrix” informally refers to a RACI matrix. Strictly speaking, RACI is one specific structured format for a responsibility matrix.
    • RACI vs. RASCI / RACI-VS and other variants: Variants such as RASCI (adding “Support”), RACIQ (adding “Quality” or “Query”), or RACI-VS (adding “Verify” and “Sign-off”) extend the model but follow the same principle of mapping roles to activities.
    • RACI vs. job descriptions: Job descriptions define broad role expectations. A RACI matrix is more granular and tied to specific processes, systems, or projects.

    Context in OT/IT and quality systems

    In OT/IT integration and quality systems, a RACI matrix helps clarify responsibilities across operations, engineering, IT, and quality for activities such as master data changes, system access controls, electronic record review, and audit response. This can support consistent execution of processes and clearer evidence of defined responsibilities during internal or external reviews.

  • Digital Form Template

    A digital form template is a predefined electronic form used to collect structured information in a consistent way. It commonly includes labeled fields, required inputs, data types, rules, and sometimes approval or signature steps. In manufacturing and regulated operations, it is often used to standardize data capture for quality, production, maintenance, training, or compliance-related records.

    The term refers to the template itself, not a completed record. A template defines what information should be entered and how it should be captured. The completed instance created from that template is the actual form submission, record, or transaction.

    What it typically includes

    • Field definitions such as text, numbers, dates, dropdowns, checkboxes, or attachments

    • Required or optional inputs

    • Validation rules, for example acceptable ranges or mandatory completion

    • Instructions for the user

    • Workflow elements such as review, approval, or electronic sign-off steps

    • Metadata such as revision, effective date, owner, or version status

    How it is used in operations

    Digital form templates are commonly used in MES, QMS, EHS, maintenance, and connected worker systems to replace or supplement paper forms. Examples include inspection checklists, deviation reports, equipment log sheets, training acknowledgments, line clearance forms, and maintenance completion records. When linked to other systems, a template may also pull contextual data such as work order number, part number, operator identity, or equipment ID.

    Common confusion

    A digital form template is often confused with a document template or a work instruction. A document template is generally used to create narrative documents, while a digital form template is designed for structured data entry. It is also not the same as a workflow by itself, although it may be one step within a larger workflow. In some systems, it overlaps with terms like e-form, electronic checklist, or data capture form, but those labels may refer either to the template or the completed form depending on the software.

    Why version control matters

    Because the template defines what data is captured, changes to its fields, logic, or approvals can affect record consistency and traceability. In regulated or quality-sensitive environments, organizations commonly manage digital form templates through document control or configuration control processes so users complete the correct version.

  • information security policy

    An information security policy is a formal, approved document that defines how an organization protects its information and information systems from unauthorized access, use, disclosure, disruption, modification, or destruction. It sets high-level rules, roles, and responsibilities for managing information security across people, processes, and technology.

    Scope and typical contents

    In industrial and manufacturing environments, an information security policy commonly covers:

    • Objectives and scope for protecting IT and OT systems, data, and networks
    • Roles and responsibilities for management, IT/OT, engineering, and end users
    • Acceptable use of systems, networks, and devices (including plant-floor equipment)
    • Access control principles, such as least privilege and account management
    • Requirements for passwords, multi-factor authentication, and remote access
    • Handling of sensitive information, including production data, IP, and customer data
    • Requirements for patching, vulnerability management, and secure configurations
    • Malware protection and endpoint security expectations
    • Backup, recovery, and business continuity expectations for critical systems
    • Incident reporting and response responsibilities
    • Supplier and third-party security expectations at a policy level
    • Training and awareness expectations for all personnel
    • Governance, including policy ownership, review cycle, and exception handling

    The policy usually sits at the top of an information security documentation hierarchy, supported by standards, procedures, and work instructions that detail how the policy is implemented.

    Operational meaning in regulated manufacturing

    Operationally, an information security policy impacts how:

    • MES, ERP, quality systems, and OT control systems are accessed and administered
    • Network segmentation between corporate IT and plant-floor OT is defined and managed
    • Change control, patching, and configuration management are performed on production systems
    • Production and quality data are stored, transmitted, and shared with external partners
    • Suppliers, system integrators, and service providers are required to protect connected systems

    In regulated environments, the information security policy is often used to demonstrate that there is a defined governance framework for protecting data and systems, which may be supported by separate cybersecurity standards, risk assessments, and incident procedures.

    Use with suppliers and critical partners

    When assessing critical suppliers, organizations frequently request or review the supplier’s information security policy as part of due diligence. This document helps the buying organization understand:

    • The supplier’s overall approach to protecting hosted or integrated systems
    • How security responsibilities are assigned within the supplier’s organization
    • Whether there is a structured framework behind more detailed practices, such as secure development, change control, and vulnerability management

    Suppliers may also be required to align with or acknowledge the customer’s information security policy when accessing the customer’s systems or handling the customer’s data.

    Common confusion

    • Information security policy vs. cybersecurity policy: In many organizations, these terms are used interchangeably. Some use “information security” as an umbrella that includes cybersecurity, physical security of information assets, and administrative controls.
    • Information security policy vs. procedure or standard: The policy states what must be achieved or controlled at a high level. Standards and procedures describe specific technical configurations and step-by-step activities to implement the policy.
    • Information security policy vs. acceptable use policy: An acceptable use policy is often a separate, user-focused document. It may be referenced by, or included within, the broader information security policy.

  • Global Template

    A global template is a reusable master pattern for documents, workflows, or configurations that is defined once and applied consistently across multiple plants, sites, or systems in an organization.

    What a global template typically includes

    In industrial and regulated manufacturing environments, a global template commonly refers to a standardized baseline for one or more of the following:

    • Documents and forms such as standard operating procedures (SOPs), work instructions, batch records, travelers, inspection forms, or checklists
    • System configurations such as MES workflows, ERP routing structures, quality modules, nonconformance or CAPA workflows, and approval matrices
    • Data structures such as common part master fields, traceability attributes, defect codes, or reason codes across sites
    • Reporting and dashboards such as a common OEE, yield, or deviation-reporting layout used across the enterprise

    A global template usually defines a minimum required structure and content, while still allowing controlled local variation where required by site-specific equipment, regulatory expectations, or customer requirements.

    Operational role in manufacturing and compliance

    Global templates are often managed centrally by corporate engineering, operations excellence, quality, or IT/OT teams and then deployed to local sites. Typical uses include:

    • Standardizing work and data so that production, quality records, and metrics are comparable across plants or regions
    • Supporting change control by updating the global template once and propagating changes to all derived local versions under document control
    • Aligning with standards such as internal QMS requirements, ISA-95 style modeling, or corporate MES/ERP governance for routing, traceability, and batch records
    • Enabling system rollouts where a single MES, QMS, or ERP configuration baseline is copied and then tailored per site under defined rules

    In regulated environments, global templates are typically subject to formal review, approval, and version control, and sites must document any permitted local deviations from the template.

    What a global template is not

    • It is not just a single plant-specific document; it is intended for multi-site or enterprise use.
    • It is not an informal example or draft; it is usually the authoritative source from which local instances are derived.
    • It is not automatically compliant with any standard; it is simply a mechanism to apply an organization’s chosen patterns consistently.

    Common confusion

    • Global template vs. local template: A local template is specific to one site or department. A global template is designed to be reused across multiple sites, often with controlled localization.
    • Global template vs. master data: Master data defines specific records (for example, a part number). A global template defines the structure, workflow, or document format that may reference or contain master data.
    • Global template vs. global policy: A policy sets rules or expectations. A global template is an operational artifact (document, configuration, or workflow) that helps implement those rules in systems and processes.

  • Shift template

    A shift template is a reusable scheduling pattern used to define how work time is organized across one or more shifts. It commonly includes planned start and end times, break structure, shift names or codes, assigned roles or crews, and the recurring pattern for days on and days off.

    In manufacturing and operations, a shift template is usually a planning object, not a record of actual attendance or labor performed. It helps structure staffing and production coverage in MES, ERP, workforce management, and related scheduling systems.

    What it includes

    • Shift start and end times

    • Day, night, weekend, or rotating shift patterns

    • Breaks, handover periods, or overlap windows

    • Crew, team, line, work center, or role assignments

    • Recurrence rules such as 2-2-3, 4-on/4-off, or Monday to Friday patterns

    A shift template may also be linked to calendars, production lines, work centers, or labor pools so that downstream systems can use the same planned operating pattern.

    What it is not

    A shift template is not the same as a timesheet, time clock record, or payroll transaction. It describes the planned schedule framework rather than confirming who actually worked, when exceptions occurred, or how hours were paid. It is also different from a detailed production schedule, which typically assigns specific jobs or orders to equipment and time slots.

    How it appears in operations systems

    Operational systems commonly use shift templates to generate daily schedules, define expected production windows, support capacity planning, and align labor availability with work orders. For example, a plant may use one template for weekday first and second shift coverage and a different template for a weekend maintenance crew.

    In integrated environments, the same template can influence reporting periods, KPI rollups, dispatch timing, and supervisor handoff routines. The template itself does not guarantee execution accuracy, but it provides the planned structure that other processes reference.

    Common confusion

    Shift template is often confused with shift schedule. A shift template is the reusable pattern, while a shift schedule is usually a specific dated instance created from that pattern.

    It can also be confused with a rota or roster. Those terms often emphasize which named employees are assigned, while a shift template may exist before individual people are assigned.

  • risk treatment plan

    A risk treatment plan is a documented plan that describes how an organization will address identified risks. It typically records the chosen risk treatment option for each risk (such as reduce, transfer, avoid, or accept), the specific controls or actions to be implemented, responsibilities, resources, and target dates, as well as how progress and effectiveness will be monitored.

    Scope and use in industrial and regulated environments

    In industrial operations and manufacturing, a risk treatment plan commonly covers risks related to operational technology (OT), information technology (IT), product quality, safety, cybersecurity, data integrity, and regulatory compliance. It provides a structured link between risk assessment results and the practical measures implemented in plants, systems, and processes.

    Typical elements include:

    • A reference to the risk assessment where the risk was identified and evaluated
    • The selected treatment strategy for each risk (for example, implement a control, modify a process, or formally accept the risk)
    • Descriptions of technical, procedural, or organizational controls to be implemented
    • Accountable owners and supporting roles for each action
    • Planned implementation dates, dependencies, and change control references
    • Criteria and methods for verifying that the treatment is implemented and effective

    In regulated manufacturing, the risk treatment plan is often expected to align with information security, quality, and safety management frameworks. It may be used as a key piece of evidence during audits to demonstrate that identified risks are being managed in a controlled and traceable way.

    Relation to standards and Annex-based control sets

    Where organizations use structured control sets (for example, those organized in annexes or appendices of security or quality standards), the risk treatment plan commonly provides the rationale for:

    • Which controls are selected or tailored to treat specific risks
    • Which controls are not applied and why (for example, not relevant or addressed by alternative measures)
    • How selected controls are implemented across IT, OT, MES, ERP, and other manufacturing systems

    In brownfield or legacy environments, a risk treatment plan may explicitly capture coexistence with older systems, compensating controls, and formal change control steps required to avoid disrupting production.

    What a risk treatment plan is not

    • It is not the same as the risk assessment itself. The assessment identifies and evaluates risks; the risk treatment plan documents how they will be addressed.
    • It is not only a high-level policy statement. It should contain actionable, traceable activities, not just general intentions.
    • It is not limited to cybersecurity. It can cover quality, safety, supply chain, and other operational risks, depending on the organization's scope.

    Common confusion

    Risk treatment plan vs. Statement of Applicability: The Statement of Applicability typically lists applicable controls and their status. The risk treatment plan focuses on the concrete actions needed to implement or adjust those controls in response to specific risks.

    Risk treatment plan vs. risk register: A risk register records risks, their ratings, and sometimes owners. A risk treatment plan emphasizes the selected treatment options and implementation details. In some organizations these are combined, but the functions are conceptually distinct.