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MPW PLANNING

MPW Shuttle Schedule & Foundry Coverage

A multi-project wafer (MPW) shuttle lets several designs share one mask set so each team pays only for its portion of the wafer. This page maps which foundries offer MPW at which nodes, the typical shuttle windows for each platform, and how to request the live schedule for your target process.

MPW service overview

Common MPW use cases

  • First silicon for a new ASIC or SoC
  • Architecture and IP validation
  • Early customer sampling
  • Low-volume or research designs

Instead of launching a dedicated wafer, designs are grouped into scheduled shuttle runs. Missing a tape-out deadline usually means waiting for the next shuttle, which can delay silicon by weeks or months.

FOUNDRY COVERAGE

MPW nodes by foundry

Each foundry runs its own shuttle program at its own set of nodes. The list below reflects MPW coverage across the foundries TOMPW coordinates; click through for the full profile and TOMPW support scope.

0.13µm CMOS (BCD / Logic-MS-RF)90nm65nm40nm28nm (HPC/HPC+)22nm ULL16nm FinFET7nm FinFET

Broadest advanced-node MPW through the TSMC shuttle program; advanced-node windows are evaluated case by case.

0.18µm0.13µm90nm55nm40nm28nm14nm

Strong mixed-signal, RF, HV, BCD and eFlash MPW platforms for IoT, display driver and power applications.

GlobalFoundries

Profile →
22nm FDSOI (22FDX)12nm LP+28nm SLPe45nm RF SOI45RFE55nm BCDlite130nm BCDliteSiGe 8XP

Differentiated specialty portfolio; 22FDX FD-SOI is a unique low-power MPW differentiator.

0.35µm0.18µm0.13µm90nm55nm40nm28nm14nm

Deep mature-to-mainstream MPW coverage with competitive cost for Asia-based supply chains.

0.18µm / 0.13µm mixed-signal0.11µmSiGe / RF SOIMEMSPMIC / BCD

Specialty foundry focused on analog, RF, photonics and MEMS MPW platforms.

SiGe BiCMOS (SG13 / SG25)RF CMOSPhotonic IC (PIC)0.13 / 0.25 µm

Premier SiGe BiCMOS and photonics research foundry; MPW shuttles for RF, mmWave and optical engines.

0.18µm HV CMOS / NVM0.13µm RF SOI0.35µm HV CMOSMEMSSOI

Specialty analog and mixed-signal foundry with strong HV, SOI and MEMS MPW platforms.

DB Hitek (Dongbu)

Profile →
0.18µm Analog / BCD0.15µm BCD0.13µm SOI0.11µm Mixed-Signal / RF

Specialty analog, BCD and mixed-signal foundry (operates as Dongbu Electronics) for power and sensor applications.

Samsung Foundry

Profile →
3nm (SF3 GAA)4nm (SF4X)5nm (SF5)8nm (8LPU)14nm (14LPP/LPU)28nm (28LPP/28FDS)65nm130nm

Broad node roadmap from 130nm to 3nm GAA; MPW runs through the B2B CONNECT reservation system with secure, isolated prototype flows.

ams OSRAM

Profile →
0.18µm Analog / Mixed-Signal0.35µm HV / BCD15+ MPW shuttles / year

One of the most frequent MPW programs in the industry (15+ analog/mixed-signal shuttles per year), accessed via broker channels such as EUROPRACTICE.

VIS (Vanguard)

Profile →
0.11µm – 0.5µmBCD / HV CMOSAnalog / Mixed-SignalDisplay driver

Taiwan specialty foundry strong in power, analog and display-driver platforms across mature nodes.

PSMC (Powerchip)

Profile →
0.18µm – 28nmCMOS / BCD / HVMixed-SignalEmbedded memory

Taiwan foundry with broad mature-to-mainstream coverage and specialty logic/mixed-signal platforms.

SilTerra

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0.13µm – 1.0µmCMOS / MEMS / RFBCD / HVSensor platforms

Malaysia pure-play foundry with regular CMOS, MEMS and RF MPW programs across mature nodes.

WIN Semiconductors

Profile →
GaAs pHEMT (0.10 / 0.15µm)GaN HEMT (0.10 / 0.15µm)RF / mmWaveCompound semiconductor

World's largest pure-play compound-semiconductor foundry; regular GaAs/GaN MPW shuttles for RF and mmWave applications.

0.18µm – 40nmCMOS / BCD / HVPMIC / CISMixed-Signal

China-based foundry for analog, mixed-signal, PMIC and CIS platforms from 180nm to 40nm.

0.13µm – 1.0µmBCD / CMOS / HVPower analogSmartcard / security

China-based foundry with deep mature-node BCD, CMOS and HV analog coverage for power and industrial designs.

0.35µm – 40nmBCD / HV CMOSAutomotive-gradePower IC / analog

China specialty foundry for BCD, HV and automotive-grade power/analog platforms.

28nm – 90nmCMOS / RF CMOSEmbedded memory / CISMixed-Signal

China-based foundry for mainstream logic and specialty nodes from 28nm to 90nm.

GaAs pHEMT / HBTGaN-on-Si HEMTSiC (MOSFET / SBD)InP / VCSEL

China's leading compound-semiconductor foundry for RF, power and photonic devices (platform-based, not standard CMOS MPW).

0.13µm – 45nmNOR FlashCIS (image sensor)MEMS / analog

China specialty foundry focused on NOR Flash, CMOS image sensors and MEMS/analog across mature nodes.

Silex Microsystems

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MEMS (surface / bulk)SOI MEMSWafer-level packagingTSV

World-leading pure-play MEMS foundry in Sweden (part of Sai MicroElectronics); process- and design-based engagements.

GaAs pHEMT (0.1 / 0.15 / 0.25 µm)GaAs HBT / InGaP HBTVCSELIntegrated Passive Devices (IPD)

Taiwan pure-play GaAs foundry for RF/microwave; pHEMT and HBT platforms for PA, WiFi/5G and optical devices.

GaN HEMT 0.45 µmGaN HEMT 0.25 µmGaN HEMT 0.15 µmGaN HEMT 0.1 µm

China-based GaN RF foundry; wafer foundry on 0.45–0.1 µm GaN HEMT for comms, radar and RF energy.

STMicroelectronics

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BCD (BCD8 / BCD9s)SiGe BiCMOS (B55 / B55X, 300 mm)FD-SOIRF-SOIMEMSSiCGaN (STi²GaN)

European IDM with premium-foundry model; BCD, SiGe BiCMOS, FD-SOI, RF-SOI, MEMS, SiC and GaN specialty technologies.

NSI (SMIC Ningbo)

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200 mm (8-inch) specialtyRF front-end (PA / switch / filter)MEMS sensorsHigh-voltage analog / BCD

China specialty foundry (SMIC Ningbo) on 200 mm lines; RF front-end, MEMS and high-voltage analog, incl. BAW (SASFR) filters.

SK Key Foundry

Profile →
0.11µm – 0.35µm BCD / CMOSAnalog / Mixed-SignalPower IC / PMIC / DDICeNVMSiC MOSFET (development)

Korea-based 200mm specialty foundry (ex-MagnaChip, SK Group) with analog/mixed-signal, power BCD, eNVM and SiC MOSFET platforms; runs an MPW shuttle program.

Sai Micro

Profile →
8-inch MEMSSurface / bulk micromachiningSOI MEMSBAW / RF filtersWafer-level packaging

China-based pure-play MEMS foundry (Beijing 8-inch line + Silex Sweden); sensors, BAW, optical MEMS and micro-fluidics. Process- and design-based engagements.

SHUTTLE WINDOWS

Representative MPW shuttle calendar

The calendar marks, by month, whether a node commonly has an indicative shuttle window for 8 foundries and 54 MPW platforms, based on publicly documented cadence. It is a month-level planning reference — exact registration cut-off and GDS submission deadlines are confirmed per project because foundry calendars shift with demand and capacity.

Indicative month-level planning reference. Current availability, registration cut-off and GDS submission deadlines must be confirmed for each project.

GlobalFoundries

Profile →
Process / NodeJanFebMarAprMayJunJulAugSepOctNovDec
SiGe 8XP
130nm BCDlite – Gen2
55 nm BCDlite
45RFE
45nm SPCLO – Silicon Photonics
28 nm SLPe
22 nm FDSOI
12 nm LP+
Process / NodeJanFebMarAprMayJunJulAugSepOctNovDec
SG13C SiGe:C RF CMOS
SG13G2 SiGe:C Bipolar/Analog
SG13G2Cu (FEOL process SG13G2 + Cu BEOL option from X-FAB)
SG13G3Cu (FEOL process + Cu BEOL option from X-FAB)
SG13G3 (FEOL process SG13G3Cu + Al-BEOL option)*
SG13S SiGe:C Bipolar/Analog
SG13SCu (FEOL process SG13S + Cu BEOL option from X-FAB)
MEMRES for SG13S
SG25 PIC (Photonics, Ge Photo-diode, BEOL)
SG25H5_EPIC high performance BiCMOS + Photonic
BEOL SG13 (M1 and Metal Layers Above) + optional LBE or TSV or RDL
Process / NodeJanFebMarAprMayJunJulAugSepOctNovDec
0.13µm CMOS BCD plus (12-inch)
0.13µm CMOS Logic or MS/RF, GP or LP (12-inch)
90nm CMOS Logic or MS/RF, GP or LP
65nm CMOS Logic or MS/RF, GP or LP
40nm CMOS Logic or MS/RF, LP (no triple gate oxide)
40nm CMOS Logic or MS/RF, GP (no triple gate oxide)
28nm CMOS Logic or RF HPC/HPC+
22nm CMOS Logic or RF ULL
16nm CMOS Logic or RF FinFET Compact
7nm CMOS Logic FinFET
Process / NodeJanFebMarAprMayJunJulAugSepOctNovDec
28N Logic/Mixed-Mode – HPC
40N Logic/Mixed-Mode – LP
65N Logic/Mixed-Mode/RF – LL
L110AE Logic/Mixed-Mode/RF
L180 Logic GII, Mixed-Mode/RF
Process / NodeJanFebMarAprMayJunJulAugSepOctNovDec
T011 0.11µ HV SOI CMOS
R013 0.13µ RF SOI CMOS *
R013 0.13µ XIPD
H018 0.18µ HV NVM CMOS E-FLASH
P018 0.18µ NVM CMOS *
T018 0.18µ HV SOI CMOS
S018 0.18µ OPTO *
H035 0.35µ HV CMOS
MB10 MEMS

DB Hitek (Dongbu)

Profile →
Process / NodeJanFebMarAprMayJunJulAugSepOctNovDec
Analog /BCD (AN07/AN180/HP180 BD180LV/BD180MV/ BD180XH/BD180XA) 0.18µm
Analog/BCD (BEOL 0.15um BD18LVA/AN180 Gen2) 0.15µm
BCD (BD180XA) 0.18µm
Analog/BCD SOI (BD130/RS13) 0.13µm
Mixed Signal/RF HRS 0.11µm

Samsung Foundry

Profile →
Process / NodeJanFebMarAprMayJunJulAugSepOctNovDec
28nm (28LPP)
65nm (LF6/LF6S)
130nm (BCD)

WIN Semiconductors

Profile →
Process / NodeJanFebMarAprMayJunJulAugSepOctNovDec
NP12-1B (GaAs)
PIN1-11 (GaAs)
PP10-29 (GaN)

Blank cells mean no public month-level reference is recorded for that node in that month. Windows reflect publicly documented MPW cadence and are confirmed per project — tell us your target foundry and node and we will lock the live run.

SHUTTLE CADENCE

Typical MPW frequency by node band

Cadence is not uniform. It follows a monthly or quarterly rhythm that depends on foundry, technology node, process maturity and demand. Use the table below as a planning reference rather than a guarantee of a specific date.

Node bandTypical MPW frequencyPlanning note
Mature (≥180nm)Monthly to quarterlyFrequent windows; often the easiest to align with a program timeline.
130nm – 65nmMonthly to quarterlyBroad fab availability across multiple qualified platforms.
40nm – 28nmQuarterly, multiple windows/yearPopular nodes run several shuttles per year at major fabs.
22nm – 14nm (FinFET/FF)2–4× per yearLess frequent, more structured calendars; qualification often required.
≤7nm advanced2–4× per yearFixed calendars with higher minimum participation and lead-time planning.

VISUAL SUMMARY

Shuttle density at a glance

The same cadence data from the tables above, drawn as a yearly rhythm. Mature-node programs can usually find a window every month, while advanced-node teams plan around a few fixed slots.

Typical MPW shuttle rhythm by node bandIndicative month-level reference — confirm current windows per projectJanFebMarAprMayJunJulAugSepOctNovDecMature ≥180 nm130–65 nm40–28 nm22–14 nm≤7 nm advancedPublished shuttle windowNo public month-level reference
Denser rows = more frequent shuttle windows. Mature nodes often run monthly; advanced nodes typically 2–4× per year.

PRICING LOGIC

Why MPW pricing varies by run

MPW pricing is not fixed. It depends on the specific run you target, so generic estimates are rarely useful. The meaningful question is the price for an exact shuttle at your chosen foundry and node.

  • Foundry and process node
  • Die size and reticle utilization
  • Number of metal layers
  • Optional process modules
  • Shuttle demand and available capacity

NEXT MOVE

Request the live schedule and pricing

Tell us your target foundry, process node, approximate die size and preferred shuttle window. You do not need a finalized GDS to start the conversation — a lightweight brief is enough to confirm availability and pricing for the relevant run.

Email project brief

FAQ

Questions about MPW scheduling

A multi-project wafer run where several customer designs share one mask set. Each participant pays for a portion of the wafer instead of a dedicated reticle, which dramatically lowers mask and fabrication cost for prototype and low-volume silicon.

Cadence depends on foundry, process node, process maturity and demand. Mature nodes commonly run monthly or quarterly, while advanced nodes typically offer two to four windows per year. Missing a tape-out deadline usually means waiting for the next shuttle.

The calendar marks, by month, whether a node commonly has an indicative shuttle window, based on publicly documented foundry cadence. It is a planning reference only — exact registration cut-off and GDS submission deadlines shift with demand and capacity, so the live run is confirmed per project. Use it to plan tape-out rhythm, then tell us your target foundry and node to lock the current window.

Yes. Many teams validate first silicon through MPW or NTO, then move into full mask once the design and commercial outlook are clearer. Planning that transition early avoids a costly process port later.

CALCULATORS

Estimate cost and dies with free calculators