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Chip lifecycle

The Chip Development Lifecycle

A semiconductor product lives through a product lifecycle, from the first sign of a market opportunity to the end of support after its last shipment. The product lifecycle is the umbrella. The 35 engineering lifecycles run inside it, in 7 families: chip and IP design; systems and platforms; software, security and AI; process, packaging and manufacturing; regulated markets; quality and process assessment; and building a chip company. Chip and IP design includes the SoC, Soft IP and Hard IP lifecycles. Each has its own stages, gates and disciplines, and the map below shows every one. The AI-assisted flow adoption lifecycle also has a view of where AI assistance applies across every lifecycle.

Explainer: The Product Lifecycle (PLC): How MRDs, PRDs, and Stage-Gate Reviews Work →

Start here: the lifecycle in five steps

A short path through the lifecycle content on the Hub, from the whole picture to the checks and the training for your role.

  1. Step 1The whole lifecycle at a glanceEvery chip lifecycle on the Hub drawn into one view, from planning and concept to end of life.11 generic phases
  2. Step 2The product lifecycle, from opportunity to end of lifeHow a semiconductor product is decided, built, launched, sustained and retired, with the business disciplines at each stage.13 stages and 31 gates
  3. Step 3Find the lifecycle for what you buildAnswer a few questions about your product in the product type classifier, or pick from the list of lifecycles.36 lifecyclesThe list of lifecycles
  4. Step 4Gates, checklists and work productsWhat is checked at each gate and what is handed over, with the checklists to run and the work products to prepare.683 gates, 2,079 checklists and 2,298 work productsAll work products
  5. Step 5Training plans for your roleA plan for each kind of member, built on the lifecycles, stage guides, gate packs and checklists.20 training plans
The semiconductor lifecycle at a glance →One generic lifecycle that draws every lifecycle on the Hub into eleven phases, from planning to end of life, with the gates, disciplines, work products, checklists, key risks, AI impact, overlays and hand-offs of each phase.

What you will find in the lifecycle area

Every number is counted from the lifecycle content on the Hub today.

Every lifecycle on the Hub, by family

36 lifecycles with 432 stages and 683 gates between them, one row per family. Each strip is a lifecycle's stages in order, with its gates marked above the stage they open or close; select a lifecycle to open its overview.

The umbrella

The product lifecycle every other lifecycle sits inside.
1lifecycle13stages31gates
  • Product lifecycleThe business lifecycle of a semiconductor product, from the first sign of a market opportunity through concept, definition, development, validation, sampling, qualification, launch, ramp, maturity and decline to end of life and the support that continues after the last shipment.13 stages31 gates

Chip and IP design

Lifecycles for building a kind of chip or the blocks inside it.
14lifecycles165stages271gates
  • SoC and full-chip lifecycleThe whole chip, from its specification through IP integration, full-chip design and verification, tape-out, bring-up and qualification to production and end of life.15 stages22 gates3 TR reviews
  • Soft IP lifecycleOne reusable block delivered as synthesisable design code (soft IP), made in-house or taken in from a supplier, from its specification through design, verification, implementation views and quality checks to a versioned release for SoC teams.8 stages10 gates2 TR reviews
  • Hard IP lifecycleFor the circuit design, layout, verification, characterisation, test chip, validation, reliability and release teams who build a hard macro (a block delivered as a laid out GDS for one process, such as an interface PHY, a memory, a clock or an analog block) and prove it on a test chip before integrators use it.9 stages16 gates3 TR reviews
  • Analog and mixed-signal lifecycleFor converters, references, regulators, clocks and radios, designed at transistor level.8 stages12 gates3 TR reviews
  • Chiplet and advanced packaging lifecycleFor products built from several dies joined in one package.9 stages13 gates3 TR reviews
  • FPGA-based product development lifecycleFor products whose custom logic runs on a commercial FPGA instead of a custom chip.10 stages12 gates
  • FPGA chip development lifecycleFor the architecture, circuit, configuration and security, verification, physical design, design software, characterisation, test, quality and product teams at an FPGA vendor who develop the device family itself: its fabric, hard IP, bitstream security, speed grades and the place-and-route and timing software customers design with.13 stages24 gates3 TR reviews
  • Structured ASIC lifecycleFor the architecture, library, physical design, verification, test, quality, supply and customer engineering teams who build a structured ASIC platform on a pre-built base array, and for the customers whose designs, often first proven on an FPGA, are customised on it in a few metal or via layers.15 stages30 gates3 TR reviews
  • AI accelerator lifecycleFor chips built to train or run machine learning models, developed together with their compiler, runtime, libraries and the systems they run in.14 stages23 gates3 TR reviews
  • Memory product lifecycle (DRAM, NAND and HBM)For memory makers' product, design, process, test, packaging and quality teams taking a DRAM, NAND or HBM generation from roadmap and cell choice to volume, grades, shrinks and end of life, and for the system, package and processor teams who qualify and integrate the parts.14 stages22 gates3 TR reviews
  • RF and mmWave product lifecycleFor the RF, millimetre-wave, electromagnetic, module, antenna, measurement, compliance and test teams who take a front-end module, transceiver, power amplifier, filter or phased array from its bands and standards to certification, production and end of life.12 stages22 gates3 TR reviews
  • Silicon photonics and optical interconnect lifecycleFor the photonic, electronic, packaging, test and reliability teams who take a silicon photonics product, such as an optical engine, a transceiver, co-packaged optics or an optical sensing chip, from its application and link budget through laser integration, wafer-level optical test and fibre attach to qualification, volume and end of life.13 stages20 gates3 TR reviews
  • Power and compound semiconductor lifecycleFor the device, process, materials, packaging, reliability, applications and quality teams who take a silicon carbide, gallium nitride or silicon power device or module from the application it serves to qualified volume supply, and for the inverter, charger and power supply designers who design it in.13 stages24 gates3 TR reviews
  • MEMS and sensors lifecycleFor the MEMS, ASIC, packaging, calibration, test and reliability teams who develop motion, pressure, acoustic, environmental and image sensors, where the transducer, its process, its interface chip and its package are designed together and every unit is calibrated.12 stages21 gates3 TR reviews

Systems and platforms

Taking chips into finished systems, and building the shared platforms that many products are derived from.
2lifecycles24stages39gates
  • System development lifecycleFor the system architects, systems engineers, board, mechanical, firmware, software, prototyping, integration, validation, compliance, manufacturing and support teams who take a product built around one or more chips from its requirements and the split between hardware, software and firmware to a validated, certified and supported system.12 stages21 gates3 TR reviews
  • Platform and derivative products lifecycleFor the platform architects, portfolio and product managers, IP, software, firmware, tools, prototyping, verification and derivative teams who build a shared base of architecture, IP, software and tools once and derive several products from it, and support all of them over the platform's life.12 stages18 gates3 TR reviews

Software, security and AI

The firmware, the security of the chip and the AI-assisted steps in the flow.
3lifecycles37stages53gates
  • Firmware and software stack lifecycleFor the teams who write and support the boot code, firmware, drivers, SDKs and security of a chip's software stack, and for hardware teams who need to know which of their milestones the software depends on and which it gates.12 stages17 gates
  • Chip and product security lifecycleFor hardware security architects, cryptography, verification and evaluation engineers, firmware, supply chain, certification, compliance and incident response teams who take a chip and its product from security objectives and a threat model through a secure architecture, attack testing, secure provisioning and certification to vulnerability response, security updates and the end of security support.13 stages19 gates
  • AI-assisted design flow adoption lifecycleFor CAD and flow teams, design and verification leads, IT security, legal and quality who bring an AI-assisted tool into a design flow, and need it qualified, governed and accountable before anyone relies on it.12 stages17 gates

Process, packaging and manufacturing

The process, design kit, package, fab, tools and test program the chips depend on.
6lifecycles74stages113gates
  • Process technology (node) lifecycleFor foundries and chipmakers developing a manufacturing process and its design kit, and for the design teams who build on it.12 stages18 gates3 TR reviews
  • Process design kit (PDK) development lifecycleFor the teams who build, release and support a process design kit and its foundation IP libraries, and for the design teams who need to know which kit release their work can rely on.13 stages16 gates3 TR reviews
  • Package technology development lifecycleFor the assembly and test providers, foundry packaging groups, materials and equipment suppliers and lead customers who develop a new package technology, such as fine-pitch bumping, redistribution layers, interposers or hybrid bonding, and take it from customer drivers and test vehicles through qualification and a design kit to volume and end of life.12 stages19 gates3 TR reviews
  • Fab build and equipment qualification lifecycleFor the investment, site, facilities, equipment, process, quality, operations and workforce teams who plan, build, equip, qualify and ramp a semiconductor fab or a new phase of one, and for the governments, suppliers and customers who work with them.12 stages20 gates3 TR reviews
  • Semiconductor equipment lifecycleFor the product, systems, process, mechanical, electrical, optics, software, integration, reliability and safety, supply chain, field service and trade compliance teams of an equipment maker who take a deposition, etch, lithography, metrology, test or assembly tool from customer roadmaps and requirements through alpha and beta evaluations and customer qualification to production, installed base service, upgrades and end of support, and for the fab and packaging teams who evaluate and run it.13 stages20 gates3 TR reviews
  • Test program and ATE development lifecycleFor the test, product and DFT engineers who decide how a chip is tested in manufacturing and who build, release and maintain its test program, patterns and test hardware.12 stages20 gates

Regulated markets

Chips for markets with their own safety, reliability and approval rules.
6lifecycles73stages107gates
  • Automotive and safety-critical lifecycleFor chips that go into vehicles and other safety-critical systems, developed to ISO 26262 and qualified to AEC-Q100.13 stages18 gates3 TR reviews
  • Vehicle cybersecurity and software update lifecycleFor vehicle makers, tier one suppliers and the chip, IP and software suppliers behind them who set up a cybersecurity management system, analyse threats, design, verify and validate security, support cybersecurity type approval under UN R155, run software updates under UN R156, and monitor, respond to and support their products until the end of cybersecurity support.13 stages19 gates
  • Space and radiation-hardened parts lifecycleFor teams designing, testing, screening, qualifying and supplying parts for spacecraft and other radiation environments, hardened by process, by design or both, and for the programs that depend on their supply.12 stages20 gates3 TR reviews
  • Avionics and airborne electronics lifecycleFor the systems, safety, hardware, software, verification, certification, process assurance, configuration, component and production teams who take airborne electronic hardware and software from aircraft and system requirements and assigned assurance levels through certification plans, design, verification, qualification and the final compliance review to production, continued airworthiness and end of support, and for the chip and IP suppliers whose parts go into it.11 stages14 gates3 TR reviews
  • Medical electronics and medical device chips lifecycleFor the systems, chip, hardware, software, security, usability, test, quality, risk management, regulatory affairs, manufacturing and post-market teams who take a medical device, or a chip designed for one, from its intended use and regulatory strategy through design controls, risk management, electrical safety and EMC testing, usability validation and regulatory submission to production, post-market surveillance and end of support.12 stages19 gates3 TR reviews
  • Industrial and energy electronics lifecycleFor the product, functional safety, security, hardware, chip, firmware, compliance, test, manufacturing, field and supply teams who take a controller, drive, inverter, protection relay, sensor interface or the chips inside them from the application and its hazards through a functional safety lifecycle and a secure development process to assessment, certification, long-life supply and end of support, and for the integrators and asset owners who build them into safety systems, machinery, plants and grids.12 stages17 gates3 TR reviews

Quality and process assessment

The quality system and the process and supplier approval schemes around the work.
3lifecycles31stages42gates
  • Quality management system lifecycle (ISO 9001 and IATF 16949)For top management, quality systems managers, process owners, internal auditors, customer and supplier quality engineers and problem solving leads who build, certify and run a quality management system to ISO 9001, and to IATF 16949 where automotive production parts are supplied, through internal audits, management reviews, certification, surveillance and recertification.10 stages12 gates
  • APQP and PPAP lifecycleFor automotive program, customer quality, product, reliability, process, quality, metrology, test, supplier quality, logistics and change control teams who plan the quality of a new automotive part with APQP, get it approved through PPAP, launch it safely and keep it approved through every later change until the end of production.9 stages14 gates
  • Automotive SPICE process and assessment lifecycleFor quality, process, project, system, software, hardware and test teams of automotive suppliers, including chip, IP and software suppliers, who have to show their customers process capability to Automotive SPICE, and for the sponsors who fund the improvement work and the assessors who rate it.12 stages16 gates

Building a chip company

A fabless startup from founding to its first product in volume.
1lifecycle15stages27gates
  • Fabless startup chip lifecycleFor founders, early employees and investors of a new fabless chip company, taking a first chip from a thesis through a test chip and design partners to product silicon and first revenue, with each funding round beside the engineering gates.15 stages27 gates3 TR reviews
stages, first to last a gatea technical readiness review (TR) the design release, such as tape-out the production releaseFamilies are the Hub's own grouping, for reading the map.
Show this chart as a list

The umbrella: 1 lifecycle, 13 stages, 31 gates

  • Product lifecycle: 13 stages and 31 gates, production release at Production release; 11 disciplines. The business lifecycle of a semiconductor product, from the first sign of a market opportunity through concept, definition, development, validation, sampling, qualification, launch, ramp, maturity and decline to end of life and the support that continues after the last shipment.

Chip and IP design: 14 lifecycles, 165 stages, 271 gates

  • SoC and full-chip lifecycle: 15 stages and 22 gates, 3 technical readiness reviews, design release at Tape-out, production release at Production release; 17 disciplines. The whole chip, from its specification through IP integration, full-chip design and verification, tape-out, bring-up and qualification to production and end of life.
  • Soft IP lifecycle: 8 stages and 10 gates, 2 technical readiness reviews; 12 disciplines. One reusable block delivered as synthesisable design code (soft IP), made in-house or taken in from a supplier, from its specification through design, verification, implementation views and quality checks to a versioned release for SoC teams.
  • Hard IP lifecycle: 9 stages and 16 gates, 3 technical readiness reviews, design release at Test chip tape-out; 13 disciplines. For the circuit design, layout, verification, characterisation, test chip, validation, reliability and release teams who build a hard macro (a block delivered as a laid out GDS for one process, such as an interface PHY, a memory, a clock or an analog block) and prove it on a test chip before integrators use it.
  • Analog and mixed-signal lifecycle: 8 stages and 12 gates, 3 technical readiness reviews, design release at Tape-out or SoC hand-off, production release at Production release; 12 disciplines. For converters, references, regulators, clocks and radios, designed at transistor level.
  • Chiplet and advanced packaging lifecycle: 9 stages and 13 gates, 3 technical readiness reviews, design release at Multi-die tape-out, production release at Production release; 12 disciplines. For products built from several dies joined in one package.
  • FPGA-based product development lifecycle: 10 stages and 12 gates, design release at Timing closure and bitstream, production release at Production release; 11 disciplines. For products whose custom logic runs on a commercial FPGA instead of a custom chip.
  • FPGA chip development lifecycle: 13 stages and 24 gates, 3 technical readiness reviews, design release at Tape-out, production release at Production release; 14 disciplines. For the architecture, circuit, configuration and security, verification, physical design, design software, characterisation, test, quality and product teams at an FPGA vendor who develop the device family itself: its fabric, hard IP, bitstream security, speed grades and the place-and-route and timing software customers design with.
  • Structured ASIC lifecycle: 15 stages and 30 gates, 3 technical readiness reviews, design release at Base layer tape-out and Custom layer tape-out, production release at Production release; 16 disciplines. For the architecture, library, physical design, verification, test, quality, supply and customer engineering teams who build a structured ASIC platform on a pre-built base array, and for the customers whose designs, often first proven on an FPGA, are customised on it in a few metal or via layers.
  • AI accelerator lifecycle: 14 stages and 23 gates, 3 technical readiness reviews, design release at Tape-out, production release at Production release; 16 disciplines. For chips built to train or run machine learning models, developed together with their compiler, runtime, libraries and the systems they run in.
  • Memory product lifecycle (DRAM, NAND and HBM): 14 stages and 22 gates, 3 technical readiness reviews, design release at Tape-out, production release at Production release; 14 disciplines. For memory makers' product, design, process, test, packaging and quality teams taking a DRAM, NAND or HBM generation from roadmap and cell choice to volume, grades, shrinks and end of life, and for the system, package and processor teams who qualify and integrate the parts.
  • RF and mmWave product lifecycle: 12 stages and 22 gates, 3 technical readiness reviews, design release at Tape-out, production release at Production release; 15 disciplines. For the RF, millimetre-wave, electromagnetic, module, antenna, measurement, compliance and test teams who take a front-end module, transceiver, power amplifier, filter or phased array from its bands and standards to certification, production and end of life.
  • Silicon photonics and optical interconnect lifecycle: 13 stages and 20 gates, 3 technical readiness reviews, design release at Tape-out, production release at Production release; 13 disciplines. For the photonic, electronic, packaging, test and reliability teams who take a silicon photonics product, such as an optical engine, a transceiver, co-packaged optics or an optical sensing chip, from its application and link budget through laser integration, wafer-level optical test and fibre attach to qualification, volume and end of life.
  • Power and compound semiconductor lifecycle: 13 stages and 24 gates, 3 technical readiness reviews, design release at Process baseline freeze, production release at Production part approval and release; 13 disciplines. For the device, process, materials, packaging, reliability, applications and quality teams who take a silicon carbide, gallium nitride or silicon power device or module from the application it serves to qualified volume supply, and for the inverter, charger and power supply designers who design it in.
  • MEMS and sensors lifecycle: 12 stages and 21 gates, 3 technical readiness reviews, design release at Qualification start, production release at Production release; 15 disciplines. For the MEMS, ASIC, packaging, calibration, test and reliability teams who develop motion, pressure, acoustic, environmental and image sensors, where the transducer, its process, its interface chip and its package are designed together and every unit is calibrated.

Systems and platforms: 2 lifecycles, 24 stages, 39 gates

  • System development lifecycle: 12 stages and 21 gates, 3 technical readiness reviews, design release at System design freeze, production release at Production release; 16 disciplines. For the system architects, systems engineers, board, mechanical, firmware, software, prototyping, integration, validation, compliance, manufacturing and support teams who take a product built around one or more chips from its requirements and the split between hardware, software and firmware to a validated, certified and supported system.
  • Platform and derivative products lifecycle: 12 stages and 18 gates, 3 technical readiness reviews, design release at Platform baseline released, production release at Derivative production release; 15 disciplines. For the platform architects, portfolio and product managers, IP, software, firmware, tools, prototyping, verification and derivative teams who build a shared base of architecture, IP, software and tools once and derive several products from it, and support all of them over the platform's life.

Software, security and AI: 3 lifecycles, 37 stages, 53 gates

  • Firmware and software stack lifecycle: 12 stages and 17 gates, design release at Early-access SDK, production release at Production software release; 15 disciplines. For the teams who write and support the boot code, firmware, drivers, SDKs and security of a chip's software stack, and for hardware teams who need to know which of their milestones the software depends on and which it gates.
  • Chip and product security lifecycle: 13 stages and 19 gates, design release at Security verification sign-off; 15 disciplines. For hardware security architects, cryptography, verification and evaluation engineers, firmware, supply chain, certification, compliance and incident response teams who take a chip and its product from security objectives and a threat model through a secure architecture, attack testing, secure provisioning and certification to vulnerability response, security updates and the end of security support.
  • AI-assisted design flow adoption lifecycle: 12 stages and 17 gates, production release at Production flow release; 13 disciplines. For CAD and flow teams, design and verification leads, IT security, legal and quality who bring an AI-assisted tool into a design flow, and need it qualified, governed and accountable before anyone relies on it.

Process, packaging and manufacturing: 6 lifecycles, 74 stages, 113 gates

  • Process technology (node) lifecycle: 12 stages and 18 gates, 3 technical readiness reviews; 15 disciplines. For foundries and chipmakers developing a manufacturing process and its design kit, and for the design teams who build on it.
  • Process design kit (PDK) development lifecycle: 13 stages and 16 gates, 3 technical readiness reviews, production release at Production PDK release; 15 disciplines. For the teams who build, release and support a process design kit and its foundation IP libraries, and for the design teams who need to know which kit release their work can rely on.
  • Package technology development lifecycle: 12 stages and 19 gates, 3 technical readiness reviews; 17 disciplines. For the assembly and test providers, foundry packaging groups, materials and equipment suppliers and lead customers who develop a new package technology, such as fine-pitch bumping, redistribution layers, interposers or hybrid bonding, and take it from customer drivers and test vehicles through qualification and a design kit to volume and end of life.
  • Fab build and equipment qualification lifecycle: 12 stages and 20 gates, 3 technical readiness reviews; 14 disciplines. For the investment, site, facilities, equipment, process, quality, operations and workforce teams who plan, build, equip, qualify and ramp a semiconductor fab or a new phase of one, and for the governments, suppliers and customers who work with them.
  • Semiconductor equipment lifecycle: 13 stages and 20 gates, 3 technical readiness reviews, production release at Production release; 15 disciplines. For the product, systems, process, mechanical, electrical, optics, software, integration, reliability and safety, supply chain, field service and trade compliance teams of an equipment maker who take a deposition, etch, lithography, metrology, test or assembly tool from customer roadmaps and requirements through alpha and beta evaluations and customer qualification to production, installed base service, upgrades and end of support, and for the fab and packaging teams who evaluate and run it.
  • Test program and ATE development lifecycle: 12 stages and 20 gates, design release at Test program ready for silicon, production release at Production test release; 15 disciplines. For the test, product and DFT engineers who decide how a chip is tested in manufacturing and who build, release and maintain its test program, patterns and test hardware.

Regulated markets: 6 lifecycles, 73 stages, 107 gates

  • Automotive and safety-critical lifecycle: 13 stages and 18 gates, 3 technical readiness reviews, design release at Tape-out, production release at Production release; 15 disciplines. For chips that go into vehicles and other safety-critical systems, developed to ISO 26262 and qualified to AEC-Q100.
  • Vehicle cybersecurity and software update lifecycle: 13 stages and 19 gates, production release at Release for post-development; 13 disciplines. For vehicle makers, tier one suppliers and the chip, IP and software suppliers behind them who set up a cybersecurity management system, analyse threats, design, verify and validate security, support cybersecurity type approval under UN R155, run software updates under UN R156, and monitor, respond to and support their products until the end of cybersecurity support.
  • Space and radiation-hardened parts lifecycle: 12 stages and 20 gates, 3 technical readiness reviews, design release at Tape-out; 15 disciplines. For teams designing, testing, screening, qualifying and supplying parts for spacecraft and other radiation environments, hardened by process, by design or both, and for the programs that depend on their supply.
  • Avionics and airborne electronics lifecycle: 11 stages and 14 gates, 3 technical readiness reviews, design release at Final compliance review; 12 disciplines. For the systems, safety, hardware, software, verification, certification, process assurance, configuration, component and production teams who take airborne electronic hardware and software from aircraft and system requirements and assigned assurance levels through certification plans, design, verification, qualification and the final compliance review to production, continued airworthiness and end of support, and for the chip and IP suppliers whose parts go into it.
  • Medical electronics and medical device chips lifecycle: 12 stages and 19 gates, 3 technical readiness reviews, design release at Design verification complete, production release at Production release; 14 disciplines. For the systems, chip, hardware, software, security, usability, test, quality, risk management, regulatory affairs, manufacturing and post-market teams who take a medical device, or a chip designed for one, from its intended use and regulatory strategy through design controls, risk management, electrical safety and EMC testing, usability validation and regulatory submission to production, post-market surveillance and end of support.
  • Industrial and energy electronics lifecycle: 12 stages and 17 gates, 3 technical readiness reviews, design release at Type test readiness, production release at Production release; 14 disciplines. For the product, functional safety, security, hardware, chip, firmware, compliance, test, manufacturing, field and supply teams who take a controller, drive, inverter, protection relay, sensor interface or the chips inside them from the application and its hazards through a functional safety lifecycle and a secure development process to assessment, certification, long-life supply and end of support, and for the integrators and asset owners who build them into safety systems, machinery, plants and grids.

Quality and process assessment: 3 lifecycles, 31 stages, 42 gates

  • Quality management system lifecycle (ISO 9001 and IATF 16949): 10 stages and 12 gates; 11 disciplines. For top management, quality systems managers, process owners, internal auditors, customer and supplier quality engineers and problem solving leads who build, certify and run a quality management system to ISO 9001, and to IATF 16949 where automotive production parts are supplied, through internal audits, management reviews, certification, surveillance and recertification.
  • APQP and PPAP lifecycle: 9 stages and 14 gates; 12 disciplines. For automotive program, customer quality, product, reliability, process, quality, metrology, test, supplier quality, logistics and change control teams who plan the quality of a new automotive part with APQP, get it approved through PPAP, launch it safely and keep it approved through every later change until the end of production.
  • Automotive SPICE process and assessment lifecycle: 12 stages and 16 gates; 12 disciplines. For quality, process, project, system, software, hardware and test teams of automotive suppliers, including chip, IP and software suppliers, who have to show their customers process capability to Automotive SPICE, and for the sponsors who fund the improvement work and the assessors who rate it.

Building a chip company: 1 lifecycle, 15 stages, 27 gates

  • Fabless startup chip lifecycle: 15 stages and 27 gates, 3 technical readiness reviews, design release at Test chip tape-out and Product tape-out, production release at Production release; 23 disciplines. For founders, early employees and investors of a new fabless chip company, taking a first chip from a thesis through a test chip and design partners to product silicon and first revenue, with each funding round beside the engineering gates.

The product lifecycle, and where the other lifecycles fit

The product lifecycle runs across the top; select a stage to open it, or an explainer under it. Each band below is an engineering lifecycle or an explainer framework, placed under the product stages it fits.

Product lifecycle
Engineering lifecycles inside it
Frameworks the explainers describe
Show this chart as a table
The product lifecycle, and where the other lifecycles fit
LifecycleProduct stages it spans
SoC lifecycleConcept & Business Case to End of Life
Soft IP lifecycleDefinition & Planning to Development
Hard IP lifecycleDefinition & Planning to Post-EOL Support
AMS lifecycleDefinition & Planning to Qualification & Production Readiness
Chiplet lifecycleDefinition & Planning to Qualification & Production Readiness
FPGA lifecycleDefinition & Planning to Post-EOL Support
Automotive lifecycleDefinition & Planning to Post-EOL Support
AI accelerator lifecycleConcept & Business Case to Post-EOL Support
Process node lifecycleOpportunity & Market Sensing to Post-EOL Support
PDK lifecycleConcept & Business Case to Post-EOL Support
Firmware and software lifecycleConcept & Business Case to Post-EOL Support
Test program lifecycleDefinition & Planning to Post-EOL Support
Startup lifecycleOpportunity & Market Sensing to Maturity & Sustaining
AI-assisted flow lifecycleConcept & Business Case to Post-EOL Support
Memory lifecycleOpportunity & Market Sensing to Post-EOL Support
Space lifecycleConcept & Business Case to Post-EOL Support
Photonics lifecycleConcept & Business Case to Post-EOL Support
Power and compound lifecycleConcept & Business Case to Post-EOL Support
Fab build lifecycleOpportunity & Market Sensing to Post-EOL Support
MEMS and sensors lifecycleConcept & Business Case to Post-EOL Support
RF lifecycleConcept & Business Case to Post-EOL Support
Package technology lifecycleOpportunity & Market Sensing to Post-EOL Support
Security lifecycleConcept & Business Case to Post-EOL Support
Equipment lifecycleOpportunity & Market Sensing to Post-EOL Support
Medical lifecycleDefinition & Planning to Post-EOL Support
Avionics lifecycleDefinition & Planning to Post-EOL Support
Industrial lifecycleDefinition & Planning to Post-EOL Support
Automotive SPICE lifecycleOpportunity & Market Sensing to Maturity & Sustaining
Vehicle cybersecurity lifecycleOpportunity & Market Sensing to Post-EOL Support
APQP lifecycleConcept & Business Case to Post-EOL Support
QMS lifecycleOpportunity & Market Sensing to Decline
System lifecycleDefinition & Planning to Post-EOL Support
Platform lifecycleOpportunity & Market Sensing to Post-EOL Support
FPGA chip lifecycleConcept & Business Case to End of Life
Structured ASIC lifecycleConcept & Business Case to End of Life
PLCOpportunity & Market Sensing to Post-EOL Support
PDLCDefinition & Planning to Development
NPIDevelopment to Launch
QualificationValidation & Characterisation to Qualification & Production Readiness
Yield rampValidation & Characterisation to Maturity & Sustaining
ObsolescenceMaturity & Sustaining to Post-EOL Support
See the product, SoC and Soft IP charts in full

The product lifecycle at a glance

The top row is the product's status, from Concept to Obsolete, each closed by its milestone. Below it, each row is a business discipline and each block names its work in that stage. Select a stage, a gate, a discipline or a block to go to its page. Small lettered markers show where AI is changing the work: red D for a disruption, blue A for an augmentation, green O for an opportunity.

Stage
Product status
Concept
Development
Sampling
Production
Discon­tinued
Obso­lete
KeyConceptDevelopmentSamplingProductionDiscontinuedObsoleteFreeze or sign-off pointMilestone for one item; the rest of the work carries onMilestone gateAI impactDisruption (red)Augmentation (blue)Opportunity (green)How AI is changing the workWhat the steps meanWhat the codes mean
Show this chart as a list

Product status

Disciplines

  • Product marketing
    • Opportunity & Market Sensing: Market sensing (Concept). Market need, target segments and market requirements set out for the concept and the plan.
    • Concept & Business Case: Market requirements (Concept). Market need, target segments and market requirements set out for the concept and the plan.
    • Definition & Planning: Positioning input (Development). Positioning and messaging drafted from the approved plan while the design is built.
    • Development: Messaging draft (Development). Positioning and messaging drafted from the approved plan while the design is built.
    • Validation & Characterisation: Product brief (Sampling). Positioning tested with lead customers on samples and launch preparation under way.
    • Customer Sampling & Design-in: Message testing (Sampling). Positioning tested with lead customers on samples and launch preparation under way.
    • Qualification & Production Readiness: Launch planning (Sampling). Positioning tested with lead customers on samples and launch preparation under way.
    • Launch: Product launch (Production). Product launched and its message kept current against competitors.
    • Ramp & Growth: Demand generation (Production). Product launched and its message kept current against competitors.
    • Maturity & Sustaining: Competitor watch (Production). Product launched and its message kept current against competitors.
    • Decline: Successor steering (Production). Product launched and its message kept current against competitors.
    • End of Life: Migration messaging (Discontinued). Customers steered to the replacement or migration path once discontinuance is decided.
  • Product management
    • Concept & Business Case: Business case (Concept). Business case, product requirements and plan approved for development.
    • Definition & Planning: Product requirements (Development). Product requirements held under change control while the design is completed and released.
    • Development: Requirements control (Development). Product requirements held under change control while the design is completed and released.
    • Validation & Characterisation: Sample plan (Sampling). Sample plan run and requirements compliance shown against lead customer feedback.
    • Customer Sampling & Design-in: Customer samples (Sampling). Sample plan run and requirements compliance shown against lead customer feedback.
    • Qualification & Production Readiness: Production release (Sampling). Sample plan run and requirements compliance shown against lead customer feedback.
    • Launch: Launch approval (Production). Product released for volume orders and its line managed through lifecycle reviews.
    • Ramp & Growth: Allocation priorities (Production). Product released for volume orders and its line managed through lifecycle reviews.
    • Maturity & Sustaining: Lifecycle reviews (Production). Product released for volume orders and its line managed through lifecycle reviews.
    • Decline: Phase-down decisions (Production). Product released for volume orders and its line managed through lifecycle reviews.
    • End of Life: Discontinuance notice (Discontinued). Discontinuance decided, with the migration path and the customer notice prepared.
    • Post-EOL Support: Closing obligations (Obsolete). Notice issued and the product's remaining obligations closed to the end of support.
  • Program management
    • Concept & Business Case: Definition plan (Concept). Development plan and schedule baselined across the business and engineering.
    • Definition & Planning: Integrated schedule (Development). Design release coordinated with the sign-off of every engineering lifecycle.; Schedule baselined (milestone for one item)
    • Development: Tape-out and release (Development). Design release coordinated with the sign-off of every engineering lifecycle.
    • Validation & Characterisation: Bring-up tracking (Sampling). Sampling, qualification and production readiness coordinated to the plan.
    • Customer Sampling & Design-in: Sample tracking (Sampling). Sampling, qualification and production readiness coordinated to the plan.
    • Qualification & Production Readiness: Production readiness (Sampling). Sampling, qualification and production readiness coordinated to the plan.
    • Launch: Launch coordination (Production). Production release and ramp coordinated, then changes tracked through maturity.
    • Ramp & Growth: Ramp coordination (Production). Production release and ramp coordinated, then changes tracked through maturity.
    • Maturity & Sustaining: Change tracking (Production). Production release and ramp coordinated, then changes tracked through maturity.
    • Decline: Discontinuance planning (Production). Production release and ramp coordinated, then changes tracked through maturity.
    • End of Life: Final shipment tracking (Discontinued). Discontinuance programme planned across sales, supply, quality and support.
    • Post-EOL Support: Product closure (Obsolete). Final shipments tracked and the product closed with its closure report.
  • Business development and sales
    • Opportunity & Market Sensing: Customer discovery (Concept). Customer needs gathered and a first lead customer list drawn up.
    • Concept & Business Case: Lead customer list (Concept). Customer needs gathered and a first lead customer list drawn up.
    • Definition & Planning: Lead customers (Development). Lead customers engaged on the plan and lined up for samples.
    • Development: Lead customers lined up (Development). Lead customers engaged on the plan and lined up for samples.
    • Validation & Characterisation: Sample placement (Sampling). Samples placed with lead customers and design-ins pursued into a pipeline.
    • Customer Sampling & Design-in: Design-in pursuit (Sampling). Samples placed with lead customers and design-ins pursued into a pipeline.; First design wins (milestone for one item)
    • Qualification & Production Readiness: Design win follow-up (Sampling). Samples placed with lead customers and design-ins pursued into a pipeline.
    • Launch: Quotes and forecast (Production). Design wins converted to orders and accounts managed through the product's life.
    • Ramp & Growth: Production orders (Production). Design wins converted to orders and accounts managed through the product's life.
    • Maturity & Sustaining: Account management (Production). Design wins converted to orders and accounts managed through the product's life.
    • Decline: Customer base review (Production). Design wins converted to orders and accounts managed through the product's life.
    • End of Life: Last-time-buy orders (Discontinued). Customers told of the discontinuance, their last-time-buy orders confirmed and remaining accounts moved to a successor.
  • Field applications
    • Definition & Planning: Customer use cases (Development). Customer use cases written for the product requirements, then evaluation hardware and reference designs planned while the design is built.
    • Development: Evaluation kit plan (Development). Customer use cases written for the product requirements, then evaluation hardware and reference designs planned while the design is built.
    • Validation & Characterisation: Evaluation kit (Sampling). Evaluation kits and reference designs supporting customer design-ins.; Evaluation kit ready (milestone for one item)
    • Customer Sampling & Design-in: Design-in support (Sampling). Evaluation kits and reference designs supporting customer design-ins.
    • Qualification & Production Readiness: Application notes (Sampling). Evaluation kits and reference designs supporting customer design-ins.
    • Launch: Training and content (Production). Application notes released and customers supported in production.
    • Ramp & Growth: Production support (Production). Application notes released and customers supported in production.
    • Maturity & Sustaining: Field support (Production). Application notes released and customers supported in production.
    • Decline: Migration planning (Production). Application notes released and customers supported in production.
    • End of Life: Customer migration (Discontinued). Customer migration to the replacement planned and customers supported through it to the last shipment.
  • Quality and reliability
    • Concept & Business Case: First quality targets (Concept). Quality and reliability targets set for the intended markets.
    • Definition & Planning: Reliability targets (Development). Qualification plan drafted against the released design.
    • Development: Qualification planning (Development). Qualification plan drafted against the released design.
    • Validation & Characterisation: Early reliability (Sampling). Qualification plan approved and parts from the production flow entering qualification.
    • Customer Sampling & Design-in: Qualification plan (Sampling). Qualification plan approved and parts from the production flow entering qualification.
    • Qualification & Production Readiness: Qualification testing (Sampling). Qualification plan approved and parts from the production flow entering qualification.
    • Launch: Control plans (Production). Qualification passed, then field quality and change notices managed in production.
    • Ramp & Growth: Early field quality (Production). Qualification passed, then field quality and change notices managed in production.
    • Maturity & Sustaining: Change notification (Production). Qualification passed, then field quality and change notices managed in production.
    • Decline: Field quality watch (Production). Qualification passed, then field quality and change notices managed in production.
    • End of Life: Quality archive (Discontinued). Change notices and field quality kept up while the discontinuance runs.
    • Post-EOL Support: Warranty and returns (Obsolete). Warranty, failure analysis and the product archive closed out to the end of support.
  • Supply chain and operations
    • Definition & Planning: Supplier selection (Development). Suppliers selected and the supply chain plan made final, with suppliers ready to build at the design release.
    • Development: Supplier readiness (Development). Suppliers selected and the supply chain plan made final, with suppliers ready to build at the design release.
    • Validation & Characterisation: Sample builds (Sampling). Demand forecast drawn from lead customers and production readiness prepared.
    • Customer Sampling & Design-in: Demand forecast draft (Sampling). Demand forecast drawn from lead customers and production readiness prepared.
    • Qualification & Production Readiness: Qualification lots (Sampling). Demand forecast drawn from lead customers and production readiness prepared.; Supply ready (milestone for one item)
    • Launch: Capacity booking (Production). Supply readiness shown, capacity ramped and deliveries run to the forecast.
    • Ramp & Growth: Capacity ramp (Production). Supply readiness shown, capacity ramped and deliveries run to the forecast.
    • Maturity & Sustaining: Supply and delivery (Production). Supply readiness shown, capacity ramped and deliveries run to the forecast.
    • Decline: Supply risk watch (Production). Supply readiness shown, capacity ramped and deliveries run to the forecast.
    • End of Life: Final builds (Discontinued). Supply risks assessed and the final inventory and supply plan agreed.
    • Post-EOL Support: Aftermarket supply (Obsolete). Final builds shipped and aftermarket supply arranged.
  • Finance
    • Concept & Business Case: Financial model (Concept). Financial model and cost and price targets set for the plan.
    • Definition & Planning: Cost and price targets (Development). Development budget tracked against the plan.
    • Development: Budget tracking (Development). Development budget tracked against the plan.
    • Validation & Characterisation: Product cost tracking (Sampling). Budget and product cost tracked through sampling and qualification.
    • Customer Sampling & Design-in: Quote pricing (Sampling). Budget and product cost tracked through sampling and qualification.
    • Qualification & Production Readiness: Standard cost (Sampling). Budget and product cost tracked through sampling and qualification.
    • Launch: Price approval (Production). Prices published and revenue and margin reported in production.
    • Ramp & Growth: Revenue tracking (Production). Prices published and revenue and margin reported in production.
    • Maturity & Sustaining: Margin review (Production). Prices published and revenue and margin reported in production.
    • Decline: Discontinuance impact (Production). Prices published and revenue and margin reported in production.
    • End of Life: End-of-life costs (Discontinued). Financial impact of the discontinuance assessed.
    • Post-EOL Support: Reserves review (Obsolete). Inventory and reserves reviewed after the last shipment.
  • Legal and compliance
    • Definition & Planning: Licence negotiation (Development). Licence, partner and freedom to operate reviews done, agreements signed and export classification started.
    • Development: Agreements signed (Development). Licence, partner and freedom to operate reviews done, agreements signed and export classification started.
    • Validation & Characterisation: Export classification (Sampling). Sample agreements and export classification in place for sample shipments.; Export classification (milestone for one item)
    • Customer Sampling & Design-in: Sample agreements (Sampling). Sample agreements and export classification in place for sample shipments.
    • Qualification & Production Readiness: Compliance declarations (Sampling). Sample agreements and export classification in place for sample shipments.
    • Launch: Terms of sale (Production). Compliance declarations and terms of sale released and kept current.
    • Ramp & Growth: Contract support (Production). Compliance declarations and terms of sale released and kept current.
    • Maturity & Sustaining: Licence compliance (Production). Compliance declarations and terms of sale released and kept current.
    • Decline: Notice review (Production). Compliance declarations and terms of sale released and kept current.
    • End of Life: Discontinuance terms (Discontinued). Discontinuance notice and contract terms reviewed.
    • Post-EOL Support: Record retention (Obsolete). Record retention arranged to the end of support.
  • Customer support
    • Customer Sampling & Design-in: Knowledge base (Sampling). Support knowledge base started from lead customer feedback.
    • Qualification & Production Readiness: Support readiness (Sampling). Support knowledge base started from lead customer feedback.
    • Launch: Support switch-on (Production). Support processes live and escalations handled in production.; Support live (milestone for one item)
    • Ramp & Growth: Escalations and orders (Production). Support processes live and escalations handled in production.
    • Maturity & Sustaining: Customer support (Production). Support processes live and escalations handled in production.
    • Decline: Migration questions (Production). Support processes live and escalations handled in production.
    • End of Life: Discontinuance queries (Discontinued). Customer questions on the discontinuance handled.
    • Post-EOL Support: Warranty support (Obsolete). Support and warranty run after the last shipment, then closed.
  • Engineering leadership
    • Opportunity & Market Sensing: Technology scan (Concept). Technical feasibility shown and engineering resources committed.
    • Concept & Business Case: Feasibility view (Concept). Technical feasibility shown and engineering resources committed.
    • Definition & Planning: Specification freeze (Development). Every engineering lifecycle signed off and the design released.
    • Development: Tape-out and release (Development). Every engineering lifecycle signed off and the design released.; Engineering sign-off (milestone for one item)
    • Validation & Characterisation: Bring-up and validation (Sampling). Silicon and system validated, with errata documented for the samples.
    • Customer Sampling & Design-in: Errata and fixes (Sampling). Silicon and system validated, with errata documented for the samples.
    • Qualification & Production Readiness: Production test release (Sampling). Silicon and system validated, with errata documented for the samples.
    • Launch: Yield learning (Production). Production test and characterisation released, then sustaining engineering.
    • Ramp & Growth: Ramp yield fixes (Production). Production test and characterisation released, then sustaining engineering.
    • Maturity & Sustaining: Cost reduction (Production). Production test and characterisation released, then sustaining engineering.
    • Decline: Sustaining engineering (Production). Production test and characterisation released, then sustaining engineering.
    • End of Life: Design data archive (Discontinued). Design and test data gathered and archived by the last shipment as the product is discontinued.

Where every engineering lifecycle fits inside it, stage by stage

For members, each lifecycle's own page opens with its chart at a glance, then why the chart looks as it does and the chart read stage by stage; select a lifecycle above or in the map. The product lifecycle's fit chart shows where every engineering lifecycle fits inside it, stage by stage.

Starting a chip company and not sure which of these lifecycles to follow? The startup lifecycle ready reckoner asks about your product, markets, team and supply, recommends the lifecycles, gates and checks to use now, and lets you tailor the gates.

To run a programme on one of these lifecycles, the product and project planner turns it into a plan with phases, gates and tasks, schedules it with a critical path, and tracks it with baselines, a RAID log, change control, gate reviews and reports for each role.

The lettered markers on each lifecycle's chart are the Hub's editorial notes on where AI is changing chip work. How AI is changing the lifecycle: the key and every note

Reading the charts: maturity, rules and TR gates

Each block shows how mature a discipline's work is by the end of a stage: 0.0 started, 0.3 early draft (outline and key choices in place, most content still to come), 0.5 in progress, 0.8 feature complete, 1.0 complete, then frozen. Each lifecycle names its own steps in its chart key.

Every chart follows the same rules. A discipline climbs at most one step a stage and never down. Each gate is owned by one discipline, which stands on the gate's step when it is held. A discipline is never ahead of the work it uses. A faded block, labelled Held or Maintained, means the step is held, or finished work is maintained under change control, and a hollow diamond is a milestone for one item while the rest of the work carries on. For members, each lifecycle's page sets these out under "Why the chart looks like this", for example for the SoC lifecycle.

TR Technical readiness review (TR): a gate that checks the technology is ready before the next commitment. TR1 checks technology and concept feasibility before development is committed (for a design kit, before the first release customers design on), TR2 design or technology readiness before a freeze or tape-out, and TR3 that the technology is ready for production before release. Where an existing gate already makes the check, it carries the TR tag instead of a new gate. TR in the glossary

How the lifecycles hand off to the product lifecycle

The product lifecycle sits in the middle. 476 gates across 35 engineering lifecycles feed a product gate or are the same decision as one (204 of them the same decision), and 124 product gate hand-downs start their stages. Inside chip and IP design, 5 IP releases also feed SoC gates directly. Where each lifecycle fits, stage by stage

How the lifecycles hand off to the product lifecycle
  • Chip and IP designIn212Out45
  • Systems and platformsIn30Out8
  • Software, security and AIIn34Out11
  • Process, packaging and manufacturingIn78Out27
  • Regulated marketsIn80Out20
  • Quality and process assessmentIn24Out10
  • Building a chip companyIn18Out3
In: gates that feed or match a product gateOut: product gate hand-downs that start the family's stages
Show this chart as a list

Where the IP lifecycles meet the SoC

Each Soft IP and Hard IP release feeds gates in the SoC lifecycle. The SoC team integrates what the two IP lifecycles hand over.

Work products

Each document, model and item the disciplines bring to the gates has its own page: who makes it, who uses it and how mature it should be at each gate.

All lifecycle work products →