{"id":4138,"date":"2026-09-04T16:05:04","date_gmt":"2026-09-04T08:05:04","guid":{"rendered":"https:\/\/global.kingdee.com\/?p=4138"},"modified":"2026-09-04T16:05:04","modified_gmt":"2026-09-04T08:05:04","slug":"what-is-product-lifecycle-management-software","status":"publish","type":"post","link":"https:\/\/global.kingdee.com\/2026\/09\/04\/what-is-product-lifecycle-management-software\/","title":{"rendered":"What Is Product Lifecycle Management Software?"},"content":{"rendered":"

A product rarely moves from idea to production in a straight line. Requirements change, designs gain new revisions, suppliers suggest alternatives, test results reveal issues, and manufacturing teams need an approved definition they can build. When those decisions live in disconnected files and inboxes, teams may struggle to determine which version is current and why it changed.<\/p>\n

Product lifecycle management software<\/b>\u00a0helps organize that work. It connects product data, people, and controlled processes from early requirements through design, industrialization, production support, service, and retirement. The aim is not merely to store documents, but to preserve the context and approvals that make product information usable across the lifecycle.<\/p>\n

PLM Software Defined<\/b><\/b><\/h2>\n

Product lifecycle management software, commonly called PLM software, is a business platform for managing product definitions and the processes that create, review, release, change, and reuse them. Depending on the organization, the controlled information may include requirements, specifications, drawings, models, parts, bills of materials, software versions, test evidence, quality records, project decisions, and engineering changes.<\/p>\n

NIST research on lifecycle decision-making<\/u><\/a><\/span>\u00a0explores how connecting and contextualizing data from design, planning, manufacturing, and inspection can support decisions across the product lifecycle. This framing is useful because PLM is both a data discipline and a workflow discipline. References to official research and standards throughout this article are for illustrative purposes only and do not imply that NIST or any other government authority endorses, or is affiliated with, Kingdee.<\/p>\n

How Product Lifecycle Management Software Works<\/b><\/b><\/h2>\n

PLM software creates governed relationships among product objects rather than treating every file as an isolated attachment. A part can be linked to its revision, drawing, specification, owner, approval status, where-used records, change request, and affected product configurations. Access rules and effectivity dates then help users understand which definition applies to a particular product, plant, date, or lifecycle state.<\/p>\n

The platform also routes work. A requirement can move through analysis and approval; a design can enter technical review; and an engineering change can be assessed by R&D, manufacturing, quality, sourcing, and finance before release. This creates a traceable path from a business need to the approved product definition and downstream execution.<\/p>\n

Key Product Lifecycle Management Software Features<\/b><\/b><\/h2>\n

Capabilities differ by edition and industry, but the following areas form a practical evaluation baseline.<\/p>\n

Requirements and Product Planning<\/b><\/b><\/h3>\n

Requirements management links customer, market, regulatory, and technical needs to product plans and design decisions. Useful controls include version history, ownership, priority, approval, decomposition, and traceability to verification evidence.<\/p>\n

Product Data and Document Control<\/b><\/b><\/h3>\n

PLM software should manage drawings, models, specifications, technical files, and metadata with revision and release controls. Search should use attributes, lifecycle states, and relationships rather than depend only on filenames or folders.<\/p>\n

BOM and Configuration Management<\/b><\/b><\/h3>\n

A bill of materials describes product structure, but one structure may not serve every purpose. PLM can manage engineering BOMs, manufacturing handoffs, options, variants, alternates, effectivity, and approved substitutions. Configuration controls should identify the applicable parts and revisions.<\/p>\n

Project, Review, and Approval Workflows<\/b><\/b><\/h3>\n

R&D project management coordinates milestones, deliverables, dependencies, issues, and review gates. Workflows should identify the task, owner, due date, decision, and required evidence. Review records should show what was evaluated and approved.<\/p>\n

Engineering Change Management<\/b><\/b><\/h3>\n

Change management connects a change reason with affected parts, documents, BOMs, products, inventory, suppliers, and service obligations. A controlled process may include impact assessment, approval, effectivity, notification, and verification. Earlier revisions should remain available as historical records.<\/p>\n

CAD and Enterprise System Integration<\/b><\/b><\/h3>\n

Design integrations can connect PLM with mechanical, electrical, and electronic design tools. Downstream interfaces may send released parts, BOMs, or changes to ERP, manufacturing, quality, procurement, and service systems. Define ownership, identifiers, status mapping, error handling, and timing.<\/p>\n

Quality, Traceability, and Knowledge Reuse<\/b><\/b><\/h3>\n

PLM can associate risks, test results, nonconformities, lessons, reusable modules, and approved standards with product records. Traceability connects requirements or issues with affected designs and evidence. Reusable knowledge needs clear ownership, status, context, and access control.<\/p>\n

Benefits of Product Lifecycle Management Software<\/b><\/b><\/h2>\n

PLM value depends on process design, data quality, adoption, and integration. Software alone does not resolve unclear ownership or inconsistent practices.<\/p>\n