Rovira i Virgili University & Universidad de Granada

Contact persons:

Benjamin Iñiguez, Francisco Gamiz

URV – UGR
Rovira i Virgili University & Universidad de Granada
Hospital Real, Avda. del Hospicio, 1, 18071
Granada, Spain

Main expertises

  • URV: Physics and modeling of neuromorphic devices, in particular memristors.
  • UGR: Neuromorphic and in-memory device concepts; 2D/CMOS hybrid architectures; device/circuit co-design.
  • UGR: Nanoscale thermal modelling for laser processing and 2D/Si material stacks.
  • URV: Physics and modeling of TFETs
  • UGR: TFET and DD-RFET device physics and TCAD; low-power steep-slope device concepts.
  • URV: Physics, compact modeling and parameter extraction of TMD FETs.
  • UGR: Graphene and TMD devices (MoS2/WS2); CVD/PE-ALD growth, transfer, laser recrystallization, patterning and electrical/noise characterization.
  • URV: Compact modeling of Si NW MOSFETs
  • URV: Understanding and modeling of physical effects in FET devices at very low tempoeratures.
  • URV: Physics, compact modeling and parameter extraction of AOS TFTs, including noise.
  • UGR: Nanosecond laser processing/recrystallization; nanoscale electrical-noise and RTN characterization.

Research interests

  • URV: Compact modeling of neuromorphic devices, in particular memristors.
  • URV: Modeling of quantum and cryogenic effects I  devices for quantum computing.
  • UGR: BEOL 2D neuromorphic devices and eNVM; sensor-to-edge/neuromorphic integration; quantum-compatible 2D/Si interfaces.
  • UGR: Heat transport and thermal-boundary effects in ultrathin films; nanosecond laser-material interaction.
  • URV: Compact modeling of TFETs and Fe transistors.
  • UGR: 2D/Si heterojunction switches; compact models, variability and reliability of steep-slope devices.
  • URV: Compact modeling of 2D FET transistors, including noise and transient effects.
  • UGR: Transfer-free <400 °C BEOL growth; contacts/interfaces/passivation; wafer-scale 2D-on-CMOS integration, variability and reliability.
  • URV: Physics and modeling of 1D devices including quantum confinement.
  • URV: Complete compact modeling of FET devices at cryogenic temperatures.
  • UGR: Cryogenic characterization of 2D/CMOS interfaces and electronics for quantum-control and sensing applications.
  • URV: Physics, compact modeling and parameter extraction of AOS TFTs, including noise.
  • UGR: Laser-directed crystallization/nanostructuring of semiconductor films; coupled process-structure-property modelling.

Main expertises

  • URV: Compact modeling and parameter extraction of FD and UTB SOI MOSFETs, as well as of Multi-Gate MOSFETs.
  • UGR: Si-CMOS/FDSOI nanoelectronics; TCAD and DFT-informed modelling; device characterization and test structures.
  • URV: Physics and modeling of memristors.
  • UGR: 1T-DRAM; eNVM/neuromorphic devices; electrical characterization and modelling.
  • URV: Physics of FET devices at very low power operation.
  • UGR: Low-power device engineering; leakage/electrostatics optimization; energy-efficient sensing and readout.
  • URV: Physics of high temperature operation in FET devices.
  • UGR: GaN HEMT device modelling and electrical characterization, including reliability-oriented analysis.
  • UGR: Process/device TCAD; DFT-linked interface models; low-frequency noise, RTN and phase-noise test structures.

Research interests

  • URV: Physics and modeling of nanosheets MOSFETs.
  • UGR: Monolithic BEOL 2D/FDSOI co-integration; low-temperature process modules; variability, reliability and compact modelling for circuits.
  • URV: Compact modeling of neuromorphic devices memristors.
  • UGR: Embedded memory and compute-in-memory on FDSOI; 2D/CMOS hybrid memory, sensing and neuromorphic macros.
  • URV: Modeling of very low power devices
  • UGR: Near-/sub-threshold CMOS and 2D devices; ultra-low-power edge sensing and processing.
  • URV: Modeling of high temperature operation in FET devices
  • UGR: High-temperature operation and reliability of wide-bandgap and heterogeneous semiconductor devices.
  • UGR: Predictive modelling and PDK-ready compact models linking emerging devices with CMOS design flows.

Main expertises

  • URV: Technology and simulation of several types of bio-sensors.
  • UGR: Graphene electrolyte-gated FET biosensors; functionalization, microfluidics, portable readout and wafer-level QC/classification.
  • URV: Technology of nanostructured organic solar cell.
  • URV: Compact modeling of devices for RF and microwave operation, in particular HF MOSFETs, GaAs HEMT and GaN HEMT.
  • UGR: GaN HEMTs; RF electrical characterization; oscillator/phase-noise and low-frequency-noise structures.
  • UGR: Nanosecond laser processing and optical/Raman characterization of 2D semiconductor materials.
  • URV: Compact model of power devices, such as LDMOSFETs and GaN HEMTs
  • UGR: AlGaN/GaN HEMT modelling and device engineering.
  • URV: Physics and modeling of devices for flexible electronics.
  • UGR: Inkjet printing and low-temperature processing capabilities for 2D-material and sensor structures.
  • UGR: CITIC-UGR micro/nanofabrication: ALD/PE-ALD, CVD, RIE, evaporation, lithography, laser annealing and wire bonding; advanced electrical/noise and materials characterization.

Research interests

  • URV: Technology improvement and modeling of bio-sensors, in particular OECT based ones.
  • UGR: Wafer-scale biosensor platforms; biofunctionalization; Debye/interface engineering; reproducibility, ageing, regeneration and point-of-care systems.
  • URV: Technology improvement and modeling of organic solar cells.
  • URV: Improvement of compact models for RF and microwave operation, including noise.
  • UGR: RF/mm-wave 2D and III-N devices; noise-aware design and sensor/RF co-integration.
  • UGR: 2D optoelectronics, photonic/CMOS co-integration and laser-defined nanostructures.
  • URV: Compact model of power devices, such as LDMOSFETs and GaN HEMTs.
  • UGR: High-linearity/high-efficiency GaN devices; reliability and heterogeneous integration with CMOS.
  • URV: Physics and modeling of devices for flexible electronics.
  • UGR: Flexible and wearable 2D/GFET sensors; low-temperature fabrication on alternative substrates.
  • UGR: Pilot-line-compatible process control, metrology, reproducibility and reliability for emerging materials and devices.

Main expertises

  • UGR: Portable GFET sensor platforms; sensor arrays; embedded/edge readout; multidisciplinary smart-system demonstrators.
  • UGR: Device-to-system co-design for sensors, memories and neuromorphic demonstrators; CMOS/2D test-chip definition.
  • UGR: BEOL 2D/CMOS co-integration (+QCHIP); FAMES pilot-line test structures and electrical/noise validation; microfluidics, wire bonding, chip carriers and packaging.

Research interests

  • UGR: AI-assisted sensor systems, multimodal sensing, edge inference and closed-loop smart devices.
  • UGR: Design-enablement/PDK flows linking TCAD and compact models to circuits and system demonstrators.
  • UGR: Scalable <400 °C heterogeneous integration; 2D/CMOS/eNVM/sensor macros; advanced packaging, reliability and pilot-line qualification.