Abbrevation
ISSCC
City
San Francisco
Country
United States
Deadline Paper
Start Date
End Date
Abstract

<br>The ISSCC 2019 Conference Theme is “ENVISIONING THE FUTURE”<br>The relentless progress of solid&#8211;state circuits and systems has a profound impact on our daily lives, changing the way we work,<br>communicate, and even socialize&#046; The advancements in Silicon IC technology predicted by Moore’s Law have been fueling this<br>progress, but pursuing this trend further becomes increasingly more challenging from technology and economic perspectives&#046;<br>Stimulated by these difficulties, the solid&#8211;state circuit community is exploring a multiplicity of paths for further development: from<br>novel technologies (innovative devices and integration techniques, such as qubits, spintronics, 3D, and photonic integration), to<br>original approaches (such as Artificial Intelligence (AI) and Machine Learning (ML)), to new applications (such as wearable<br>electronics, IoT, virtual reality, autonomous driving, robotics, and many more)&#046; It is difficult to clearly envision the way forward<br>in this vibrant but complex emerging world: Thus, ISSCC 2019 is seeking innovations that will inspire the future of solid&#8211;state<br>circuits and systems&#046;<br>Innovative and original papers are solicited in subject areas including (but not limited to) the following:<br>ANALOG: Amplifiers, comparators, oscillators, filters, references; nonlinear analog circuits; digitally&#8211;assisted analog circuits; MEMS/sensor interface circuits&#046;<br>DATA CONVERTERS: Nyquist&#8211;rate and oversampling A/D and D/A converters; embedded and application&#8211;specific A/D and D/A converters; analog to information conversion; time&#8211;to&#8211;digital converters&#046;<br>DIGITAL ARCHITECTURES &amp; SYSTEMS: Microprocessors, micro&#8211;controllers, applications processors, graphics processors; digital systems for communications, video and multimedia, machine&#8211;learning, deep&#8211;learning, neuromorphism, cryptographics, security and trusted computing, special&#8211;function acceleration, processing&#8211;in&#8211;memory; reconfigurable systems, near&#8211; and sub&#8211;threshold systems, digital architectures and systems for emerging applications (e&#046;g&#046; virtual reality – AR/VR and autonomous vehicles)&#046;<br>DIGITAL CIRCUITS: Building blocks for 2D/3D SoC such as intra&#8211;chip communication circuits, clock distribution techniques, soft&#8211;error and variation&#8211;tolerant circuits&#046; Circuits for power management in digital applications: including voltage regulators, adaptive digital circuits, digital sensors; Near&#8211; and sub&#8211;threshold circuits; PLLs for digital clocking applications&#046; Circuits for neuro&#8211;computing; Hardware security circuits including PUFs, TRNG, and attack&#8211;detection sensors&#046;<br>IMAGERS, MEMS, MEDICAL, &amp; DISPLAYS: Image sensors and SoCs; automotive, LIDAR, and ultrasonic sensors; MEMS sensor systems; wearable, implantable, ingestible electronics, biomedical SoCs, neural interfaces and closed&#8211;loop systems; biosensors, microarrays, and lab&#8211;on&#8211;a&#8211;chip; display electronics, displays with sensing functionality; sensing for AR/VR&#046;<br>MEMORY: Static, dynamic, and non&#8211;volatile memories for stand&#8211;alone and embedded applications; memory/SSD controllers; high&#8211;bandwidth I/O interfaces; memories based on phase&#8211;change, magnetic, spin&#8211;transfer&#8211;torque, ferroelectric, and resistive materials; array architectures and circuits to improve low&#8211;voltage operation, power reduction, reliability, and fault tolerance; memory&#8211;subsystem enhancements, including in&#8211;memory logic functions, machine learning, artificial intelligence, and AR/VR&#046;<br>POWER MANAGEMENT: Power control and management circuits, regulators; switched&#8211;mode power converter ICs using inductive, capacitive, and hybrid techniques; energy&#8211;harvesting circuits and systems; wide&#8211;bandgap topologies and gate&#8211;drivers; power and signal isolators; circuits for lighting, wireless power&#046;<br>RF CIRCUITS and WIRELESS SYSTEMS*: Building blocks and complete solutions at RF, mm&#8211;Wave and THz frequencies for receivers, transmitters, frequency synthesizers, transceivers, SoCs, and SiPs&#046; Innovative circuit&#8211;level and system&#8211;architecture solutions for established wireless standards and future systems or applications such as radar, sensing, and imaging&#046;<br>TECHNOLOGY DIRECTIONS: Emerging IC and system solutions for: biomedical, sensor interfaces, analog signal processing, power management, computation, data storage, and communication; analog/mixed&#8211;signal techniques for security and machine learning; non&#8211;silicon&#8211;, carbon&#8211;, organic&#8211;, metal&#8211;oxide&#8211;, compound&#8211;semiconductor&#8211; and new&#8211;device&#8211;based circuits; nano, flexible, large&#8211;area, stretchable, printable, quantum, optical, and 3D&#8211;integrated electronics; spintronics&#046;<br>WIRELINE: Receivers/transmitters/transceivers for wireline systems, including backplane transceivers, optical links, chip&#8211;to&#8211;chip<br>communications, 2&#046;5/3D interconnect, copper&#8211;cable links, and equalizing on&#8211;chip links; exploratory I/O circuits for advancing data rates, power efficiency, and equalization; wireline transceiver building blocks (such as AGCs, front ends, equalizers, clock&#8211;generation and distribution circuits including PLLs, clock&#8211;and&#8211;data recovery, line drivers, and hybrids)&#046;<br><div><br></div>