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TO_Apr2025.160GHz_LNA
false
TO_Apr2025 160-derived four-stage LNA at 100 MHz
ihp-sg13g2
null
Amplifiers & RF
Amplifies voltage through four direct-coupled SiGe HBT stages with emitter degeneration and interstage bias clamps.
https://github.com/IHP-GmbH/TO_Apr2025/blob/63e203a0eccfb6028a1a0a8364553e4e979b55b3/160GHz_LNA/design_data/qucs-s/160GHz_LNA(MAIN).sch
qualified
TO_Apr2025
netlist_to_gds
# Four-Stage SiGe HBT Voltage Amplifier Layout Task ## Objective Create a clean SG13G2 layout for the maintained four-stage direct-coupled common-emitter voltage amplifier in `LNA160_FOUR_STAGE`. Preserve the circuit connectivity, HBT multiplicities, passive dimensions and five external ports. The submitted top cell ...
tasks/ihp-sg13g2/TO_Apr2025/cases/160GHz_LNA/case.toml
a59b36efe855ba0999cadb33ebaca83a6a47492a1ac6f77b2e4f243529001cb1
tasks/ihp-sg13g2/pdk.toml
37c308dab7bf60e1b6f621aac194e913866c36304e8a8a0ba799c274e3dc7ed6
tasks/ihp-sg13g2/TO_Apr2025/cases/160GHz_LNA/problem.md
tasks/ihp-sg13g2/TO_Apr2025/cases/160GHz_LNA/materials/circuit.cdl
26b815aa103d0d81b54e21c661b28860304a5d23be900d17192cbb92100be3c6
tasks/ihp-sg13g2/TO_Apr2025/LICENSE
TO_Apr2025.40_GHZ_LOW_NOISE_TIA
false
TO_Apr2025 40 GHz low-noise single-ended TIA
ihp-sg13g2
null
Amplifiers & RF
Converts input current to voltage through three SiGe HBT stages with resistive feedback and emitter degeneration.
https://github.com/IHP-GmbH/TO_Apr2025/blob/63e203a0eccfb6028a1a0a8364553e4e979b55b3/40_GHZ_LOW_NOISE_TIA/design_data/qucs-s/40_GHz_Low_Noise_TIA.sch
qualified
TO_Apr2025
netlist_to_gds
# Three-Stage SiGe HBT Transimpedance Amplifier Layout Task ## Objective Create a clean SG13G2 layout for the maintained three-stage, single-ended transimpedance amplifier in `FDM_QNC_00_LN_TIA`. Preserve the circuit connectivity, device multiplicities, passive dimensions and six external ports. The submitted top cel...
tasks/ihp-sg13g2/TO_Apr2025/cases/40_GHZ_LOW_NOISE_TIA/case.toml
e547c6bcca5b539eef4e77bde2ea96179838781a6f6732af68ab180ae8dc6778
tasks/ihp-sg13g2/pdk.toml
37c308dab7bf60e1b6f621aac194e913866c36304e8a8a0ba799c274e3dc7ed6
tasks/ihp-sg13g2/TO_Apr2025/cases/40_GHZ_LOW_NOISE_TIA/problem.md
tasks/ihp-sg13g2/TO_Apr2025/cases/40_GHZ_LOW_NOISE_TIA/materials/circuit.cdl
17a094c09698acfbe6a25a50d3a0292ebb82fd82b7e21269442bcdd4fa3c0d45
tasks/ihp-sg13g2/TO_Apr2025/LICENSE
TO_Apr2025.97_GHZ_LINEAR_TIA
false
TO_Apr2025 97-derived multi-stage linear TIA
ihp-sg13g2
null
Amplifiers & RF
Converts input current to voltage using three SiGe HBT stages and active emitter-follower feedback.
https://github.com/IHP-GmbH/TO_Apr2025/blob/63e203a0eccfb6028a1a0a8364553e4e979b55b3/97_GHZ_LINEAR_TIA/design_data/qucs-s/97_GHZ_LINEAR_TIA.sch
qualified
TO_Apr2025
netlist_to_gds
# Linear SiGe HBT Transimpedance Amplifier Layout Task ## Objective Create a clean SG13G2 layout for the maintained multi-stage linear transimpedance amplifier in `FMD_QNC_01_LIN_TIA`. Preserve the circuit connectivity, HBT multiplicities, passive dimensions and six external ports. The submitted top cell must be `FMD...
tasks/ihp-sg13g2/TO_Apr2025/cases/97_GHZ_LINEAR_TIA/case.toml
adcf589b020b333b37c10bd6372efc696d953ca7bfcdba5b898d3ba7ca9efd60
tasks/ihp-sg13g2/pdk.toml
37c308dab7bf60e1b6f621aac194e913866c36304e8a8a0ba799c274e3dc7ed6
tasks/ihp-sg13g2/TO_Apr2025/cases/97_GHZ_LINEAR_TIA/problem.md
tasks/ihp-sg13g2/TO_Apr2025/cases/97_GHZ_LINEAR_TIA/materials/circuit.cdl
150ab19522eecccf2889ed62c07b14e15e29e97a75ce12563fcd95d846be9112
tasks/ihp-sg13g2/TO_Apr2025/LICENSE
TO_Apr2025.DC_to_130_GHz_TIA.design_1
false
Two-stage SiGe HBT TIA with nominal AC/DC requirements
ihp-sg13g2
null
Amplifiers & RF
Converts input current to voltage through two direct-coupled SiGe HBT stages with first-stage resistive feedback.
https://github.com/IHP-GmbH/TO_Apr2025/blob/63e203a0eccfb6028a1a0a8364553e4e979b55b3/DC_to_130_GHz_TIA/design_1/design_data/qucs-s/DC_to_130_GHz_TIA.sch
qualified
TO_Apr2025
netlist_to_gds
# Two-Stage SiGe HBT Transimpedance Amplifier Layout Task ## Objective Create a clean SG13G2 layout for the maintained two-stage transimpedance amplifier in `FMD_QNC_03a_TIA_1`. Preserve the circuit connectivity, HBT multiplicities, passive dimensions and five external ports. The submitted top cell must be `FMD_QNC_0...
tasks/ihp-sg13g2/TO_Apr2025/cases/DC_to_130_GHz_TIA.design_1/case.toml
4f2831cdc809a1b2b95d86ec6a53a35ae038a57edec95adadcde6cb33b4c6371
tasks/ihp-sg13g2/pdk.toml
37c308dab7bf60e1b6f621aac194e913866c36304e8a8a0ba799c274e3dc7ed6
tasks/ihp-sg13g2/TO_Apr2025/cases/DC_to_130_GHz_TIA.design_1/problem.md
tasks/ihp-sg13g2/TO_Apr2025/cases/DC_to_130_GHz_TIA.design_1/materials/circuit.cdl
41054606cd4c4845149df6c9a38a7d38d45ae4ba22afb5ff588d33051aaf06f3
tasks/ihp-sg13g2/TO_Apr2025/LICENSE
freepdk45.CircuitOpt.fd_ota
false
Fully Differential Telescopic OTA
freepdk45
null
Amplifiers & RF
Amplifies differential inputs with a telescopic cascode stage and transistor-level common-mode feedback.
https://github.com/751K/circuit-optimization-lab/blob/a33c87e1db3223cf964a43c3a08da67e12b64723/examples/freepdk45_fd_ota.json
qualified
CircuitOpt
netlist_to_gds
# FreePDK45 Fully Differential Telescopic OTA Layout Task ## Objective Implement the fully differential OTA from the supplied 16-transistor netlist, with a telescopic common-source/common-gate signal path and transistor-based continuous-time output common-mode feedback (CMFB). Evaluation uses extracted connectivity a...
tasks/freepdk45/CircuitOpt/cases/fd_ota/case.toml
06639126367b61de0bb03725151b194cde17f5db8c3f0565791da6b6e717cf57
tasks/freepdk45/pdk.toml
7712cbf3df33d0877c035b3afa6283415b36da64ad4551d49b859d9601dffea3
tasks/freepdk45/CircuitOpt/cases/fd_ota/problem.md
tasks/freepdk45/CircuitOpt/cases/fd_ota/materials/circuit.spice
4d3b70dc4275dec002434649f56fba42859326b377859bcc74dedaaab983502e
tasks/freepdk45/CircuitOpt/LICENSE
freepdk45.OpenRAM.cell_6t
true
Six-Transistor SRAM Bitcell
freepdk45
10
Logic & memory
Stores one bit using cross-coupled inverters and wordline-controlled access transistors.
https://github.com/ferdous313/OpenRAM/blob/420a33e731d7d80bf9c7cd54ffbeec3603259847/technology/freepdk45/sp_lib/cell_6t.sp
qualified
OpenRAM
netlist_to_gds
# Six-Transistor SRAM Bitcell Layout Task ## Objective Implement the supplied six-transistor SRAM bitcell, retaining cross-coupled storage, complementary bitlines and the shared wordline. Preserve authoritative netlist models, W/L, interface and connections; top cell is `cell_6t`. ## Inputs and Interface Ordered SP...
tasks/freepdk45/OpenRAM/cases/cell_6t/case.toml
474266fbeec90e97c72b5016a2d8eaddbf86dba9f4782e1b45acf8dee0514422
tasks/freepdk45/pdk.toml
7712cbf3df33d0877c035b3afa6283415b36da64ad4551d49b859d9601dffea3
tasks/freepdk45/OpenRAM/cases/cell_6t/problem.md
tasks/freepdk45/OpenRAM/cases/cell_6t/materials/circuit.spice
18518f33516076c2bdca25c7036319734470c7757e3b1a2ab5c8e93b21fb4488
tasks/freepdk45/OpenRAM/LICENSE
freepdk45.OpenRAM.sense_amp
false
Clocked SRAM Sense Amplifier
freepdk45
null
Logic & memory
Resolves a small bitline voltage difference into a clocked digital decision.
https://github.com/ferdous313/OpenRAM/blob/420a33e731d7d80bf9c7cd54ffbeec3603259847/technology/freepdk45/sp_lib/sense_amp.sp
qualified
OpenRAM
netlist_to_gds
# Clocked SRAM Sense Amplifier Layout Task ## Objective Implement the supplied clocked regenerative sense amplifier. Dout is low when sampled BL is below BR, and high for the opposite differential. Preserve authoritative netlist models, W/L, interface and connections; top cell is `sense_amp`. ## Inputs and Interface...
tasks/freepdk45/OpenRAM/cases/sense_amp/case.toml
75460f703a78a85e1530029ed21d4e0079600ecd76dd1b1ffc54305c66d63c8a
tasks/freepdk45/pdk.toml
7712cbf3df33d0877c035b3afa6283415b36da64ad4551d49b859d9601dffea3
tasks/freepdk45/OpenRAM/cases/sense_amp/problem.md
tasks/freepdk45/OpenRAM/cases/sense_amp/materials/circuit.spice
f5a25305dc9184f778cad474f697091f37bfc8b30cf045e46306ce0927c5565f
tasks/freepdk45/OpenRAM/LICENSE
freepdk45.OpenRAM.write_driver
true
Complementary SRAM Write Driver
freepdk45
12
Logic & memory
Drives complementary bitlines during a write and releases them when disabled.
https://github.com/ferdous313/OpenRAM/blob/420a33e731d7d80bf9c7cd54ffbeec3603259847/technology/freepdk45/sp_lib/write_driver.sp
qualified
OpenRAM
netlist_to_gds
# Complementary SRAM Write Driver Layout Task ## Objective Implement the supplied complementary tri-state write driver: with WEN=1, BL=DIN and BR=NOT DIN; with WEN=0, both outputs are disabled. Preserve authoritative netlist models, W/L, interface and connections; top cell is `write_driver`. ## Inputs and Interface ...
tasks/freepdk45/OpenRAM/cases/write_driver/case.toml
13fc4b2901b988014c77ee7164cc5cb5ec0d45e1191c47bab79551ff23836372
tasks/freepdk45/pdk.toml
7712cbf3df33d0877c035b3afa6283415b36da64ad4551d49b859d9601dffea3
tasks/freepdk45/OpenRAM/cases/write_driver/problem.md
tasks/freepdk45/OpenRAM/cases/write_driver/materials/circuit.spice
40cf5d0d27b138b06a7b6b0bbdffefbf6a0569fae6092f1fd6d64c5501a952b4
tasks/freepdk45/OpenRAM/LICENSE
freepdk45.nangate45-pdk.AOI21_X1
false
AND-OR-Invert Gate
freepdk45
null
Logic & memory
Implements AND-OR-invert logic in a fixed-height standard cell.
https://foss-eda-tools.googlesource.com/third_party/freepdk45/+/356e90646f5ef26ea09b1ed8ce4796871403a0c7/Back_End/spice/AOI21_X1.spi
qualified
nangate45-pdk
netlist_to_gds
# AND-OR-Invert Gate Layout Task ## Objective Implement ZN = NOT (A OR (B1 AND B2)) with the supplied VTL transistors, preserving authoritative netlist models, W/L, interface and connections; top cell is `AOI21_X1`. ## Inputs and Interface Ordered SPICE ports: `A B1 B2 ZN VDD VSS`. Names are case-insensitive, but d...
tasks/freepdk45/nangate45-pdk/cases/AOI21_X1/case.toml
c732832e4cfbe115e6a089febf6ff5571edf662e0c0a8972250d3a939b58d805
tasks/freepdk45/pdk.toml
7712cbf3df33d0877c035b3afa6283415b36da64ad4551d49b859d9601dffea3
tasks/freepdk45/nangate45-pdk/cases/AOI21_X1/problem.md
tasks/freepdk45/nangate45-pdk/cases/AOI21_X1/materials/circuit.spice
07d8b2857f5ecd7bde8d5b3e231b16b6819272db2d19c1ee4882094e04bc909e
tasks/freepdk45/nangate45-pdk/LICENSE
freepdk45.nangate45-pdk.INV_X1
false
Inverter
freepdk45
null
Logic & memory
Inverts a digital input in a fixed-height standard cell.
https://foss-eda-tools.googlesource.com/third_party/freepdk45/+/356e90646f5ef26ea09b1ed8ce4796871403a0c7/Back_End/spice/INV_X1.spi
qualified
nangate45-pdk
netlist_to_gds
# FreePDK45 INV_X1 Layout Task ## Objective Implement the fixed-size transistor inverter `INV_X1` in FreePDK45. Preserve ordered ports A ZN VDD VSS, four-terminal connections, VTL models and fixed sizes, implementing A=0→ZN=1, A=1→ZN=0. Solve budget: **3 hours**. ## Inputs and Interface Declared inputs are this des...
tasks/freepdk45/nangate45-pdk/cases/INV_X1/case.toml
b3577fc9b8b1fa9871ff3ab0ca398700a2ee8de9b7ff5779b2127322dc2a75b4
tasks/freepdk45/pdk.toml
7712cbf3df33d0877c035b3afa6283415b36da64ad4551d49b859d9601dffea3
tasks/freepdk45/nangate45-pdk/cases/INV_X1/problem.md
tasks/freepdk45/nangate45-pdk/cases/INV_X1/materials/circuit.spice
18da14e782ffbc06bb5abf382f3f3b66cb4dfdb0e71d706668c1149819d22ca1
tasks/freepdk45/nangate45-pdk/LICENSE
freepdk45.nangate45-pdk.NAND2_X1
true
Two-Input NAND
freepdk45
4
Logic & memory
Implements two-input NAND logic in a fixed-height standard cell.
https://foss-eda-tools.googlesource.com/third_party/freepdk45/+/356e90646f5ef26ea09b1ed8ce4796871403a0c7/Back_End/spice/NAND2_X1.spi
qualified
nangate45-pdk
netlist_to_gds
# Two-Input NAND Layout Task ## Objective Implement ZN = NOT (A1 AND A2) with the supplied VTL transistors, preserving authoritative netlist models, W/L, interface and connections; top cell is `NAND2_X1`. ## Inputs and Interface Ordered SPICE ports: `A1 A2 ZN VDD VSS`. Names are case-insensitive, but different name...
tasks/freepdk45/nangate45-pdk/cases/NAND2_X1/case.toml
e393d3cc9a45adaedac49fd718b4ed966b11ce47cb098f669b9cac87edd7e45f
tasks/freepdk45/pdk.toml
7712cbf3df33d0877c035b3afa6283415b36da64ad4551d49b859d9601dffea3
tasks/freepdk45/nangate45-pdk/cases/NAND2_X1/problem.md
tasks/freepdk45/nangate45-pdk/cases/NAND2_X1/materials/circuit.spice
1decfdcffa5a7f962e26c0831e9a219521670f282df72e465fd61ebccdba12b0
tasks/freepdk45/nangate45-pdk/LICENSE
freepdk45.nangate45-pdk.NOR2_X1
false
Two-Input NOR
freepdk45
null
Logic & memory
Implements two-input NOR logic in a fixed-height standard cell.
https://foss-eda-tools.googlesource.com/third_party/freepdk45/+/356e90646f5ef26ea09b1ed8ce4796871403a0c7/Back_End/spice/NOR2_X1.spi
qualified
nangate45-pdk
netlist_to_gds
# FreePDK45 NOR2_X1 Layout Task ## Objective Implement the fixed-size two-input NOR gate `NOR2_X1` in FreePDK45, preserving ports A1 A2 ZN VDD VSS, four-terminal connections, VTL models and fixed sizes, implementing 00→1, 01→0, 11→0, 10→0. Solve budget: **3 hours**. ## Inputs and Interface Declared inputs are this ...
tasks/freepdk45/nangate45-pdk/cases/NOR2_X1/case.toml
01537b81e1e560100552a4243a835cf9d0ad7f6030b374b4b88cf4920db2a60a
tasks/freepdk45/pdk.toml
7712cbf3df33d0877c035b3afa6283415b36da64ad4551d49b859d9601dffea3
tasks/freepdk45/nangate45-pdk/cases/NOR2_X1/problem.md
tasks/freepdk45/nangate45-pdk/cases/NOR2_X1/materials/circuit.spice
6521472bc3714e83d5fcf0ffa0e462c2439d863f31a7b20e6141056f2232c1cd
tasks/freepdk45/nangate45-pdk/LICENSE
freepdk45.nangate45-pdk.XOR2_X1
false
Two-Input XOR
freepdk45
null
Logic & memory
Implements two-input XOR logic in a fixed-height standard cell.
https://foss-eda-tools.googlesource.com/third_party/freepdk45/+/356e90646f5ef26ea09b1ed8ce4796871403a0c7/Back_End/spice/XOR2_X1.spi
qualified
nangate45-pdk
netlist_to_gds
# FreePDK45 XOR2_X1 Layout Task ## Objective Implement the fixed-size two-input XOR gate `XOR2_X1` in FreePDK45, preserving ports A B Z VDD VSS, four-terminal connections, VTL models and fixed sizes, implementing 00→0, 01→1, 11→0, 10→1. Solve budget: **3 hours**. ## Inputs and Interface Declared inputs are this des...
tasks/freepdk45/nangate45-pdk/cases/XOR2_X1/case.toml
c532b4de894581dda9128dc2e06115b6020d0440c7cf44445f6338a7a0b9f40e
tasks/freepdk45/pdk.toml
7712cbf3df33d0877c035b3afa6283415b36da64ad4551d49b859d9601dffea3
tasks/freepdk45/nangate45-pdk/cases/XOR2_X1/problem.md
tasks/freepdk45/nangate45-pdk/cases/XOR2_X1/materials/circuit.spice
d887f609291cad55b09d6ed77c06e2a327923084dfd4ff356abf53ece7a18f37
tasks/freepdk45/nangate45-pdk/LICENSE
gf180mcuD.2AMLogic-sar-adc.track_switch
false
Dummy-Compensated Track Switch
gf180mcuD
null
Mixed-signal
Tracks an analog input through a transmission gate with dummy compensation.
https://github.com/2AMLogic/gf180-sar-adc/tree/c32c8da53e52fbb7d75f6f628b8cc9f6f45a13fc/design/adc-top/adc_top.spice
qualified
2AMLogic-sar-adc
netlist_to_gds
# Dummy-Compensated Track Switch Layout Task ## Objective Implement `adc_tgate_dum` in GF180MCU D, preserving circuit, sizes and ordered interface. Measure tracking, settling and hold feedthrough for complementary-clock 0.5/2.5 V steps with 1 pF output capacitance. ## Inputs and Interface Inputs are this descriptio...
tasks/gf180mcuD/2AMLogic-sar-adc/cases/track_switch/case.toml
8a25dfca0a335386d528498a7612a648f9313f6b147126a97db50b5b2a85e52e
tasks/gf180mcuD/pdk.toml
ce793ac96e84cb091d8042f1a02ba920f4999a4a1125befc6295abe342f3abde
tasks/gf180mcuD/2AMLogic-sar-adc/cases/track_switch/problem.md
tasks/gf180mcuD/2AMLogic-sar-adc/cases/track_switch/materials/circuit.spice
24b64a7a410681352d4ec80b0fead64d6c1987ebd375acde58af33e7832f30dd
tasks/gf180mcuD/2AMLogic-sar-adc/LICENSE
gf180mcuD.Chipathon2023_ADC.comparator
false
Dynamic Comparator
gf180mcuD
null
Mixed-signal
Compares two input voltages using a clocked regenerative decision.
https://github.com/ishi-kai/Chipathon2023_ADC/tree/3dce439b2125a9d628e43be40c65cf8fce5d795c/gitefu/comp_20240331/comp_20240331.sch
qualified
Chipathon2023_ADC
netlist_to_gds
# Dynamic Comparator Layout Task ## Objective Implement `comp_20240331` in GF180MCU D, preserving circuit, sizes and ordered interface. Complete clocked decisions in both directions with input common mode 1.65 V, differential input ±20 mV, clock 50 MHz and 50 fF per output. ## Inputs and Interface Inputs are this d...
tasks/gf180mcuD/Chipathon2023_ADC/cases/comparator/case.toml
b73dc7a3bb684c4a3526b0d63a82730745d9a0a83621f236127df7e9b7209735
tasks/gf180mcuD/pdk.toml
ce793ac96e84cb091d8042f1a02ba920f4999a4a1125befc6295abe342f3abde
tasks/gf180mcuD/Chipathon2023_ADC/cases/comparator/problem.md
tasks/gf180mcuD/Chipathon2023_ADC/cases/comparator/materials/circuit.spice
0f529f8162a367b1408730f5dee3b06847de139a770fc41be1bd38e92c056e3d
tasks/gf180mcuD/Chipathon2023_ADC/LICENSE
gf180mcuD.Jianxun-OTA.ota_5t
true
Five-Transistor OTA with Bias and Dummies
gf180mcuD
8
Amplifiers & RF
Amplifies a differential input with a compact five-transistor OTA core and bias network.
https://github.com/Jianxun/iic-osic-tools-project-template/tree/178a401d847ce7a602d0ce70a1ba90a15b5f9536/designs/libs/core_analog/ota_5t/ota_5t.spice
qualified
Jianxun-OTA
netlist_to_gds
# Five-Transistor OTA with Bias and Dummies Layout Task ## Objective Implement `ota_5t` in GF180MCU D, preserving circuit, sizes and ordered interface. Measure small-signal differential gain, common-mode rejection and unity-gain frequency at common mode 1.65 V, bias 10 uA and load 1 pF. ## Inputs and Interface Inpu...
tasks/gf180mcuD/Jianxun-OTA/cases/ota_5t/case.toml
fb5a4100d5e222b9226307d83fab4861e226e4f2fa344c5ec5e327b1f9e29f2e
tasks/gf180mcuD/pdk.toml
ce793ac96e84cb091d8042f1a02ba920f4999a4a1125befc6295abe342f3abde
tasks/gf180mcuD/Jianxun-OTA/cases/ota_5t/problem.md
tasks/gf180mcuD/Jianxun-OTA/cases/ota_5t/materials/circuit.spice
fe6966f64eb3bc72880adca79dac070e0c0e2ea05cdc46c83f49616611d36fac
tasks/gf180mcuD/Jianxun-OTA/LICENSE
gf180mcuD.analog-db.amp_004_folded_cascode
false
Externally Biased PMOS-Input Folded-Cascode OTA
gf180mcuD
null
Amplifiers & RF
Amplifies differential inputs with an externally biased PMOS folded-cascode stage across three supply voltages.
https://github.com/MacAnalog/spicexplorer-release/tree/263d0322f8900dc331536fbbe6c0e804514fc454/analog-db/circuits/amp_004_folded_cascode
qualified
analog-db
netlist_to_gds
# Externally Biased PMOS-Input Folded-Cascode OTA Layout Task ## Objective Implement the fixed `amp_004_folded_cascode` circuit in GF180MCU D and submit self-contained GDS. Fourteen MOS entries (17 instances after multiplicity expansion) form a PMOS-input folded-cascode OTA with a bias mirror and cascode branches. Th...
tasks/gf180mcuD/analog-db/cases/amp_004_folded_cascode/case.toml
127098bead279ffe44b1b11c6ba80a9a5b8a9f3c9cd224526743ab77a8af1af5
tasks/gf180mcuD/pdk.toml
ce793ac96e84cb091d8042f1a02ba920f4999a4a1125befc6295abe342f3abde
tasks/gf180mcuD/analog-db/cases/amp_004_folded_cascode/problem.md
tasks/gf180mcuD/analog-db/cases/amp_004_folded_cascode/materials/circuit.spice
0e1b5d28435e858dd108e6213f90505a7a33e067d9e9c728acbd5f61087912df
tasks/gf180mcuD/analog-db/LICENSE
gf180mcuD.analog-db.amp_017_tan_clia
false
Tan CLIA Three-Stage Amplifier
gf180mcuD
null
Amplifiers & RF
Amplifies differential signals through three stages with current inversion and physical R/C compensation.
https://github.com/MacAnalog/spicexplorer-release/tree/263d0322f8900dc331536fbbe6c0e804514fc454/analog-db/circuits/amp_017_tan_clia
qualified
analog-db
netlist_to_gds
# Tan CLIA Three-Stage Amplifier Layout Task ## Objective Implement `amp_017_tan_clia` with the supplied fixed topology and dimensions. The PMOS input pair and cascoded NMOS branches drive voutn/net050. XM70 and XM71/XM72 form the current-inversion path through net3/net5; XM61 and the DM_1-controlled XM73 bias this p...
tasks/gf180mcuD/analog-db/cases/amp_017_tan_clia/case.toml
c1cf99ceacaef68e318769178b7e876d601faa3d1f6c1ebf5dabe1727d40a01d
tasks/gf180mcuD/pdk.toml
ce793ac96e84cb091d8042f1a02ba920f4999a4a1125befc6295abe342f3abde
tasks/gf180mcuD/analog-db/cases/amp_017_tan_clia/problem.md
tasks/gf180mcuD/analog-db/cases/amp_017_tan_clia/materials/circuit.cdl
59a4d962ade70da8bbdc21dffc81adf077c84baa2057b100deaed0c5f34e7dc2
tasks/gf180mcuD/analog-db/LICENSE
gf180mcuD.analog-db.amp_018_telescopic_cascode
false
Tail-Referenced Telescopic Cascode Amplifier
gf180mcuD
null
Amplifiers & RF
Amplifies differential inputs with an NMOS telescopic cascode and tail-referenced bias across three capacitive loads.
https://github.com/MacAnalog/spicexplorer-release/tree/263d0322f8900dc331536fbbe6c0e804514fc454/analog-db/circuits/amp_018_telescopic_cascode
qualified
analog-db
netlist_to_gds
# Tail-Referenced Telescopic Cascode Amplifier Layout Task ## Objective Implement `amp_018_telescopic_cascode` in gf180mcuD and submit self-contained GDS. Ten MOS devices form an NMOS-input telescopic cascode amplifier. Fixed upstream W/L/m are retained, including the single finger of XM5. The two ideal internal sour...
tasks/gf180mcuD/analog-db/cases/amp_018_telescopic_cascode/case.toml
0a181e246190eef423260dd9fc0f315c9061f3475c0e43b380622e52294eeae2
tasks/gf180mcuD/pdk.toml
ce793ac96e84cb091d8042f1a02ba920f4999a4a1125befc6295abe342f3abde
tasks/gf180mcuD/analog-db/cases/amp_018_telescopic_cascode/problem.md
tasks/gf180mcuD/analog-db/cases/amp_018_telescopic_cascode/materials/circuit.spice
6df66ed141e0b188eafe3f66c153bcd81d2b4186c9eb20f9f821bbe4f8d006fa
tasks/gf180mcuD/analog-db/LICENSE
gf180mcuD.analog-db.amp_019_ti_ldo_error
false
Externally Biased TI-Architecture Error Amplifier
gf180mcuD
null
Amplifiers & RF
Amplifies a differential error signal using external bias, level shifting and series Miller compensation.
https://github.com/MacAnalog/spicexplorer-release/tree/263d0322f8900dc331536fbbe6c0e804514fc454/analog-db/circuits/amp_019_ti_ldo_error
qualified
analog-db
netlist_to_gds
# Externally Biased TI-Architecture Error Amplifier Layout Task ## Objective Implement `amp_019_ti_ldo_error` with the complete fixed topology and minimize layout-induced degradation under the declared nominal observations. All twelve MOS remain, including the externally driven NMOS reference diode, four sinks, NMOS ...
tasks/gf180mcuD/analog-db/cases/amp_019_ti_ldo_error/case.toml
546b4ce92ec1367784901b983911dce253e459c1516301fad9d5d3d35380beec
tasks/gf180mcuD/pdk.toml
ce793ac96e84cb091d8042f1a02ba920f4999a4a1125befc6295abe342f3abde
tasks/gf180mcuD/analog-db/cases/amp_019_ti_ldo_error/problem.md
tasks/gf180mcuD/analog-db/cases/amp_019_ti_ldo_error/materials/circuit.cdl
3af8b547c72e7e34d0f919ace84d1eafff32f9c4b7f1b6a0e60ca6d45bab8fcc
tasks/gf180mcuD/analog-db/LICENSE
gf180mcuD.analog-db.amp_032_ti_ldo_error_selfbias
false
Self-Biased LDO Error Amplifier
gf180mcuD
null
Amplifiers & RF
Amplifies an error signal with a self-biased two-stage core, level-shifted mirror and Miller compensation.
https://github.com/MacAnalog/spicexplorer-release/tree/263d0322f8900dc331536fbbe6c0e804514fc454/analog-db/circuits/amp_032_ti_ldo_error_selfbias
qualified
analog-db
netlist_to_gds
# Self-Biased LDO Error Amplifier Layout Task ## Objective Implement `amp_032_ti_ldo_error_selfbias` as a GF180MCU D layout. Eleven MOS devices form the fixed upstream two-stage amplifier, with a level-shifted PMOS mirror, its 500 kohm gate-rail tie, diode-connected self-bias and series Miller compensation. The fixed...
tasks/gf180mcuD/analog-db/cases/amp_032_ti_ldo_error_selfbias/case.toml
6bc98a4eb833c2b6713b5e77dff6beb58cc62174baecd796fa1ac8a21917817c
tasks/gf180mcuD/pdk.toml
ce793ac96e84cb091d8042f1a02ba920f4999a4a1125befc6295abe342f3abde
tasks/gf180mcuD/analog-db/cases/amp_032_ti_ldo_error_selfbias/problem.md
tasks/gf180mcuD/analog-db/cases/amp_032_ti_ldo_error_selfbias/materials/circuit.cdl
9e9cb685378e09c43bf827a69c0189e83fb9ef47b6d96655c466e1bfa411b7d1
tasks/gf180mcuD/analog-db/LICENSE
End of preview. Expand in Data Studio

ICLayout-Bench Dataset

ICLayout-Bench provides 92 public circuit-layout tasks, including a 21-task core benchmark, for studying and evaluating automated IC layout. Given a transistor-level SPICE netlist and English requirements, a participant produces a GDS layout. The ICLayout-Bench evaluator checks physical correctness and measures post-layout electrical behavior and area under each task's declared conditions.

Each task includes requirements, a netlist, test stimuli, an evaluation contract and a qualified reference layout. Browsing these materials requires no EDA tools; running physical and electrical checks requires the evaluator and its declared external tools and process resources. Collection licenses differ, and the analog-db materials include noncommercial terms; see licensing.

Tasks and subsets

Process All tasks Core tasks Circuit coverage Resource declaration
FreePDK45 9 3 Logic cells, SRAM and peripheral circuits, differential amplifier pdk.toml
GF180MCU 27 7 Amplifiers, comparators, regulators, temperature references, DAC, oscillator and scan logic pdk.toml
IHP SG13G2 49 7 Amplifiers, feedback and sampled circuits, regulators, references and SiGe circuits pdk.toml
SKY130A 7 4 Amplifiers, comparator, current mirror, power-on reset, sample-and-hold and DAC pdk.toml
Total 92 21

The only Hugging Face configuration is default; its test split contains all 92 tasks. There are no separate training or validation splits. The core benchmark is a subset selected by in_core, not a separate split. Tasks outside core remain available for broader evaluation or focused exercises.

The core covers logic, storage, passive networks, sampling, oscillation, high-frequency behavior and feedback control while reducing repeated circuit families. It is a selection for capability coverage, not a measured difficulty ranking. core_order gives the evaluator's dispatch order, not difficulty. The full corpus is weighted toward amplifiers and RF: its presentation categories contain 52 Amplifiers & RF, 17 Mixed-signal, 14 Power & references and 9 Logic & memory tasks. Report the selected subset and per-task results when comparing participants.

Browse and download

To browse the task table with the Hugging Face datasets library:

from datasets import load_dataset

tasks = load_dataset("MAI716/ICLayout-Bench", split="test")
core = tasks.filter(lambda task: task["in_core"]).sort("core_order")
print(tasks[0]["problem"])

This loads the table, including the requirements text. It does not download the netlists, GDS references or other files addressed by the table's paths.

To download the complete dataset and read a task's files, use snapshot_download. The example loads the Parquet table from the same downloaded directory as the assets, keeping them at one revision:

from pathlib import Path
from datasets import load_dataset
from huggingface_hub import snapshot_download

revision = "main"  # Use a full dataset commit hash for repeatable experiments.
dataset_root = Path(snapshot_download(
    repo_id="MAI716/ICLayout-Bench",
    repo_type="dataset",
    revision=revision,
    local_dir="iclayout-bench-dataset",
)).resolve()
tasks = load_dataset(
    "parquet",
    data_files={"test": str(dataset_root / "data.parquet")},
    split="test",
)
task = next(task for task in tasks if task["id"] == "freepdk45.nangate45-pdk.NAND2_X1")
print(task["problem"])
print((dataset_root / task["netlist_path"]).read_text())
print("Contract:", dataset_root / task["case_path"])
print("Dataset root:", dataset_root)

A full dataset commit hash can also be passed as revision to load_dataset. For comparisons, record that revision together with the evaluator version, selected task IDs and evaluation environment.

Files and table fields

README.md
LICENSE
data.parquet                  # One row per task
tasks/<pdk>/
  pdk.toml                    # Pinned external resources and evaluation profiles
  <collection>/
    LICENSE                   # Collection and component terms
    NOTICE                    # Attribution, where present
    cases/<case>/
      case.toml               # Task metadata, inputs and evaluation contract
      problem.md              # Participant-facing requirements
      materials/              # Netlist and test stimuli
      reference/              # Reference layout

All table paths are relative to the dataset root. Paths inside case.toml are resolved relative to the case directory as specified by the evaluator. The table is a convenient view; the complete requirements and evaluation contract are in problem.md and case.toml.

Field Meaning
id Stable task identifier used for selection and evaluation.
title Human-readable task title.
pdk, collection Process and source collection in the directory hierarchy.
category, summary Presentation category and brief circuit description.
in_core Boolean membership in the core benchmark.
core_order Positive integer dispatch order for core tasks; null outside core.
task_kind, status Task type and qualification status; current tasks are qualified layout tasks.
source_url Original circuit or design source for attribution.
problem Full English requirements text, also available through description_path.
case_path, case_sha256 Contract file path and SHA-256 of its bytes.
pdk_path, pdk_sha256 Process resource declaration path and SHA-256 of its bytes.
description_path Path to the requirements file.
netlist_path, netlist_sha256 Input SPICE netlist path and SHA-256 of its bytes.
license_path Path to the collection license; also read any accompanying NOTICE.

Reference layouts are available for inspection. The standard benchmark runner provides only declared solver inputs and approved process resources to a participant; reference layouts are excluded. Use that runner when measuring participant performance to preserve the input boundary.

Evaluate a layout or check a reference

Install and configure the evaluator using its setup and tools guide. The dataset declares external PDK resources and evaluation profiles; it does not bundle the installed PDKs or EDA executables.

After preparing the required tools and resources, a reference check can use the directory downloaded above. Run this from the directory containing iclayout-bench-dataset, and choose a fresh output directory:

python -m benchmarking.engine.preview --dataset ./iclayout-bench-dataset run \
  --case freepdk45.nangate45-pdk.NAND2_X1 --output ./reference-check

This evaluates the supplied reference and writes local reports. It does not run a participant. For submitting candidate layouts or configuring participant experiments, see the evaluation guide and participant examples.

Evaluation checks the submitted artifact, design rules (DRC), netlist equivalence (LVS), declared geometry constraints and post-layout electrical requirements. Scores range from 0 to 100 and combine declared electrical quality with functional layout area. A valid reference demonstrates feasibility; it need not score 100. Tool failures or unavailable measurements can leave a score unknown; completed physical or functional rejections score zero. Exact checks, targets, weights and operating conditions belong to each task contract. See the evaluator's scoring definition.

Validation scope and limitations

The supplied references have passed their declared qualification plans. This establishes feasibility under the evaluated conditions. It does not measure participant performance or establish manufacturing signoff. Supplies, loads, temperatures, stimuli and observation windows vary by task; only the stated conditions are covered.

  • FreePDK45 uses predictive device models and estimated Magic RC extraction. Its community physical-check deck has known coverage limits, including an unimplemented different-potential well-spacing check.
  • GF180MCU uses the declared variant-D block-level checks and extraction. Chip-level density and seal-ring closure are outside this benchmark's scope.
  • IHP SG13G2 includes CMOS and SiGe tasks with case-specific extraction profiles. The core SiGe driver uses capacitance extraction; its high-frequency checks do not establish distributed resistance, inductance or complete RF signoff.
  • SKY130A uses the declared TT, 27 °C fixtures and distributed RC extraction; these tasks do not establish process-corner yield, mismatch or reliability.

Circuit names are source identifiers, not frequency or performance guarantees. For example, the case named DC_to_130_GHz_TIA.design_1 evaluates AC behavior only through 100 MHz. The VCO task evaluates the stated tuning and phase behavior, without a phase-noise or jitter claim. Read each problem before interpreting a result as evidence of circuit coverage.

Licensing

The root LICENSE is MIT and covers original project metadata and documentation. It does not replace the terms for task materials. Each row's license_path points to the applicable collection terms.

Task materials Tasks Included terms
analog-db derivatives in GF180MCU and IHP SG13G2 62 PolyForm Noncommercial 1.0.0, with additional retained component terms where applicable.
OpenRAM 3 GPL-3.0.
CircuitOpt, Jianxun-OTA and scan DFF 3 MIT.
Other collections 24 Apache-2.0; see each collection's LICENSE and NOTICE.

The dataset therefore uses component-specific license metadata on Hugging Face. Read the included terms for your selected tasks and retain applicable licenses, notices, attribution and modification notices when redistributing materials. External PDKs and EDA tools have separate licenses.

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