United States

For p-type Cu2O thin film transistors (TFTs), high contact resistance is one of the critical issues that limit field effect mobility. Thus, to alleviate the contact resistance issue, in this work, we for the first time demonstrated Cu2O TFTs with nitrogen-doped Cu2O S/D interlayer. We observe a reduced contact resistance and improved field effect mobility when the N:Cu2O S/D interlayer is used.

DRC 2022

N:Cu2O S/D for low contact resistance p-type Cu2O thin film transistor

cu2o

thin film transistor

contact resistance

The 15th Joint MMM-INTERMAG Conference (2022 Joint) is sponsored jointly by AIP Publishing and the IEEE Magnetics Society. Members of the international scientific and engineering communities interested in recent developments in fundamental and applied magnetism are invited to attend and contribute to the technical sessions. The technical program will include invited and contributed papers in oral and poster sessions, invited symposia, a plenary session, and an evening session, with about 1500 presentations overall. This Conference provides an outstanding opportunity for worldwide participants to meet their colleagues and collaborators and discuss developments in all areas of magnetism research.

The 2022 Joint Conference will offer both in-person and prerecorded on-demand content.

For tickets to the event, please register at the following link: https://magnetism.org/register

Please register for the Joint MMM-Intermag conference to join the event.

2022 Joint MMM-INTERMAG

This Conference provides an outstanding opportunity for worldwide participants to meet their colleagues and collaborators and discuss developments in all areas of magnetism research.

technical paper

[![](https://assets.underline.io/uploads/markdown_image/1/image/985c8a40b04e56675221c8549975de3c.png)](https://drive.google.com/file/d/1B70nPIeeeqdG4UU70NlYXuKVOHLRuJEo/view?usp=sharing)

### ** History of DRC**
The Device Research Conference (DRC) began in the pre-transistor era with the 1942 establishment of the Conference on Electron Device Research (CEDR). Following William Shockley’s 1948 CEDR presentation of the transistor device, the Solid-State Device Research Conference (SSDRC) was established, with invitation-only attendance.

In the ensuing decades, many exciting firsts were presented at SSDRC, including the use of impurity diffusion in silicon and germanium, the first practical MOSFET, and the first lattice-matched heterojunction.

In 1969, under the leadership or Herbert Kroemer and Cal Quate, the CEDR and SSDRC merged into DRC. In 1970, attendance was opened to all, and the first DRAM (dynamic random-access memory), room temperature lasers, and first CCD (charge-coupled device) were reported—all in the same 1970 DRC meeting!

1976 saw the first official coordination of tandem meetings between DRC and the Electronic Materials Conference (EMC) to bring together the electronic materials and device communities—a custom which persists to this day. In 1991, DRC began publishing its digest with IEEE; they can all be found [here on IEEE Xplore](https://ieeexplore.ieee.org/xpl/conhome/1000199/all-proceedings). Throughout this period, DRC featured reports of many novel and record-setting devices, including the HEMT (High Electron Mobility Transistor), VCSEL (Vertical Cavity Surface Emitting Laser), HBT (Heterojunction Bipolar Transistor), and nanoscale MOSFETs.

In recent years, DRC has continued to be the world’s premier forum to present innovative semiconductor device research with work on organic thin film transistors, graphene and carbon nanotube transistors, and 2D materials all featuring prominently in the 1990s through to the present day. In 2017, we celebrated DRC’s 75th anniversary with special sessions and an [article in the Journal of the Electron Device Society](https://ieeexplore.ieee.org/stamp/stamp.jsp?tp=&arnumber=8168249&isnumber=8232486). DRC technical topics continue to evolve with emerging device trends such as memory devices, quantum devices, optoelectronics/photonics, and wide bandgap power devices to reflect the exciting work being done by a diverse community of device engineers around the globe.

Today, as we look forward to the next 75+ years of device innovation, DRC continues to lead the way in showcasing top-caliber research, facilitating vibrant discussion and debate and acting as a platform to nurture the next generation of device engineers. We welcome you to join us at the next DRC!

To learn more about DRC's history, please see [Aaron Franklin, Debdeep Jena and Deji Akinwande, "75 Years of the Device Research Conference—A History Worth Repeating," in IEEE Journal of the Electron Devices Society, vol. 6, pp. 116-120, 2018. doi: 10.1109/JEDS.2017.2780778](https://ieeexplore.ieee.org/stamp/stamp.jsp?tp=&arnumber=8168249&isnumber=8232486).

### **Topics**
* Biological Devices
* Devices for Extreme Conditions
* Heterogeneously Integrated Devices
* Memory Devices
* Modeling and Simulation of Devices
* Nanoscale and Vacuum Devices
* Optoelectronic and Optical Devices
* Other Emerging Devices
* Power Devices
* Quantum Devices
* RF and Terahertz Devices
* Spintronic and Magnetic Devices
* Thin-film Devices
* Wide-bandgap Devices
 
### **Invited Speakers**
* Patrick Fay, University of Notre Dame
* Susanne Hoffmann-Eifert, Peter Grünberg Institute
* Sanghyeon Kim, Korea Advanced Institute of Science and Technology
* Sriram Krishnamoorthy, University of California, Santa Barbara
* Mario Lanza, King Abdullah University of Science and Technology
* Xiuling Li, The University of Texas at Austin
* Marko Radosavljevic, Intel Corporation
* Siddharth Rajan, The Ohio State University
* Giordano Scappucci, Delft University of Technology
* Fisher Yu, University of Arkansas
* Wenjuan Zhu, University of Illinois at Urbana-Champaign




Registration is required to attend this event. If you have not already done so, please use the link below to register for a ticket to the conference:

https://www.mrs.org/drc-2022/registration

Registration Is Required

DRC continues to be the world’s premier forum to present innovative semiconductor device research with work on organic thin film transistors, graphene and carbon nanotube transistors, and 2D materials all featuring prominently in the 1990s through to the present day. In 2017, we celebrated DRC’s 75th anniversary with special sessions and an article in the Journal of the Electron Device Society. 
DRC technical topics continue to evolve with emerging device trends such as memory devices, quantum devices, optoelectronics/photonics, and wide bandgap power devices to reflect the exciting work being done by a diverse community of device engineers around the globe.

Metal oxides (e.g., In2O3, InZnO) have been demonstrated to be excellent materials for flexible electronics. Solution-processed methods offer a cost-effective and high uniformity route to deposit the metal oxides on a variety of substrates. However, post-processing is often necessary and it becomes a challenge on plastic substrates. Here, we explore photonic curing to process the semiconductor material without substantially heating the plastic substrate.

Photonic Curing: Rapid Thermal Processing of Oxide Thin-film Transistors on Plastic

In this work, atomically thin ALD Zn-doped or InZnO are investigated for the first time as a BEOL channel. Outstanding device performance on InZnO transistors is achieved including on-off current ratio of 1e7 and 1e9, on-current density of 1.6 A/mm and 1.2 A/mm with In:Zn ALD cycle ratio of 10:1 and 5:1, respectively, without optimization annealing. This work provides a new route to explore new BEOL oxide semiconductor channels beyond In2O3 achieving better current saturation at higher drain voltage and higher power amplification

Atomically-thin atomic-layer-deposited InZnO transistors with BEOL compatibility

Monolayer 2D material WSe2 provides an unique platform for exploring the generation and control of spin and valley polarization. In this work we conduct Kerr rotation measurements on monolayer WSe2 transisors to show the electrical control and temperature dependence of the spin and valley polarization generated by the spin and valley Hall effect (SVHE). A drift-diffusion theory along with the reflection spectra and electrcal IV curves are used to interpret the data and extract meaningful parameters.

Controlling the Spin and Valley Hall Effect in Monolayer WSe2 at Elevated Temperatures

Late News: High Voltage β-Ga2O3 Lateral Schottky barrier diode with High Permittivity Dielectric RESURF demonstrating > 1 GW/cm2 Power Figure of Merit

Here, we demonstrate improvement in the mobility and on-state current of monolayer MoS2 transistors using a high-tensile-stress SiNx capping layer. We demonstrate its applicability to achieve high currents in both back- and top-gated device configurations. We achieve up to 47% improvement in back-gated FET mobility and on-state current, then extend the technique to achieve 33% improved current drive in top-gated FETs, with record saturation current up to 488 μA/μm in a 200 nm long channel.

Mobility Enhancement of Monolayer MoS2 Transistors using Tensile-Stressed Silicon Nitride Capping Layers

We investigate the impact of oxide traps on the performance of 300 mm integrated dual-gate WS2 FETs. First, we develop a simple analytical model to describe the electrostatics of our FET design and compare it with TCAD simulations. Afterwards, we perform BTI measurements using several combinations of gate stress and gate sweep to determine the density of active traps based on our electrostatics understanding.

Analysis of BTI in 300 mm integrated dual-gate WS2 FETs

In this work, we demonstrate atomic-layer-deposited (ALD) single-channel indium oxide (In2O3) gate-all-around (GAA) nanoribbon field-effect transistors (FETs) in a back-end-of-line (BEOL) compatible process. A maximum on-state current (ION) of 19.3 mA/μm (near 20 mA/μm) is achieved in an In2O3 GAA nanoribbon FET with a channel thickness (T¬IO) of 3.1 nm, channel length (Lch) of 40 nm, channel width (Wch) of 30 nm. The record high drain current is about one order of magnitude higher than any conventional single-channel semiconductor FETs.

Late News: A Gate-All-Around Single-Channel In2O3 Nanoribbon FET with Near 20 mA/µm Drain Current

The SiGeSn semiconductors have opened a new route for the development of all-group-IV-based optoelectronic devices. This talk will present the recent progress for the development of SiGeSn technology, including the material growth using commercial chemical vapor deposition reactor, demonstration of optically pumped and electrically injected lasers, light emitting diodes (LEDs) and photodetectors.

SiGeSn Technology for All-Group-IV Photonics

This presentation will give an overview of the current status and future opportunities for high-frequency ultrawide bandgap (UWBG) semiconductor transistors. GaN-based transistors have demonstrated excellent performance for RF applications, , but are close to the limits set by their electronic properties in the mm-wave regime. UWBG semiconductors such as high Al-content AlGaN can provide significantly higher breakdown electric field while having electron saturated velocity similar to GaN, and can in principle provide significant improvements in power-gain product at mm-wave frequencies. However, key challenges in real devices such as high contact resistance, premature breakdown of metal-semiconductor and dielectric interfaces, and thermal management must be addressed before such improved performance is realized.

Ultra-Wide Bandgap Semiconductor Transistors for mm-wave Applications

In this work, we introduce N-polar HEMTs on single crystal aluminum nitride (AlN) substrates with a GaN/AlGaN/AlN heterostructure. The homoepitaxially grown AlN layer and the N-polar structure offer many advantages over the conventional Ga-polar AlGaN/GaN HEMTs, such as high breakdown voltage, superior thermal management, stronger electron confinement, and low-resistivity ohmic contact. The first DC results of the device will be presented, and these results will help guide us in creating high performance RF HEMTs with minimal thermal issues.

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Photonic Curing: Rapid Thermal Processing of Oxide Thin-film Transistors on Plastic

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Electromagnetic Simulation of Current and Temperature Distribution in Railgun Based on Moving Contact Resistance Model

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Next from DRC 2022

Photonic Curing: Rapid Thermal Processing of Oxide Thin-film Transistors on Plastic

Similar lecture

Electromagnetic Simulation of Current and Temperature Distribution in Railgun Based on Moving Contact Resistance Model

Stay up to date with the latest Underline news!

PRESENTATIONS

CONFERENCES

COMPANY

RESOURCES

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