28th International Symposium on Quality Electronic Design (ISQED'27) Call for Papers
For any question please contact the publication committee by sending email to isqedisqed@gmail.com. Note the following important dates:
IMPORTANT DATES (Midnight, US Pacific Time) |
FINAL Paper Submission Deadline
|
Nov. 17, 2026 |
| Acceptance Notification |
Jan. 22. 2027 |
| Camera-Ready Paper Due |
Feb 17, 2027 |
| Presentation Video, and Speaker Bio |
March 20, 2027 |
Papers are requested in the following areas
A pioneer and leading multidisciplinary conference, ISQED accepts and promotes papers related to the manufacturing, design and EDA. Authors are invited to submit papers in the various disciplines of high level design, circuit design (digital, analog, mixed-signal, RF), test & verification, design automation tools; processes; flows, device modeling, semiconductor technology, advance packaging, and biomedical & bioelectronic devices. All past Conference proceedings & Papers
have been published in IEEE Xplore digital library and indexed by Scopus.
The details of various topics of paper submission are as follows:
Agentic AI, Generative AI, EDA Tools and Methodologies (EDA)
- Agentic AI, generative AI, and large language models (LLMs) for electronic design automation, including autonomous design agents, intelligent EDA workflows, and AI-assisted circuit and system design
- Machine learning and AI-driven EDA methodologies for design-space exploration, optimization, synthesis, placement, routing, and physical design
- EDA tools, design flows, and methodologies for digital, analog, mixed-signal, and RF circuits and systems
- AI-assisted design verification, debugging, and design-rule checking, including automated testbench generation and verification workflows
- Design automation for analyzing and mitigating process variations, aging effects, soft errors, and reliability challenges
- IP design automation, integration, reuse, and qualification, including automated IP validation and interoperability
- EDA methodologies for chiplets, 2.5D/3D ICs, heterogeneous integration, and advanced packaging, including multi-die design automation and optimization
- Modeling, simulation, and design-technology co-optimization (DTCO), including technology computer-aided design (TCAD) and process-aware design methodologies
- EDA tools and methodologies for emerging computing paradigms, including neuromorphic, in-memory, and quantum computing
- Design automation for silicon photonics, optical interconnects, and electronic-photonic integrated circuits
- EDA tools and methodologies for MEMS, NEMS, and other emerging micro/nano-scale systems
- Open-source and interoperable EDA platforms, cloud-based design automation, and emerging methodologies for collaborative and scalable electronic design
- Other emerging topics related to electronic design automation tools, platforms, algorithms, and methodologies
Hardware and System Security, Trust, and Assurance (HSS)
- Hardware attacks, vulnerabilities, and countermeasures, including side-channel attacks, fault injection, hardware Trojans, reverse engineering, and physical tampering
- Hardware security primitives and cryptographic implementations, including physically unclonable functions (PUFs), true random number generators (TRNGs), lightweight cryptography, and secure key management
- Secure processor and SoC architectures, including trusted execution environments (TEEs), hardware roots of trust, secure boot, and hardware-enforced isolation
- Hardware security for AI/ML systems and accelerators, including protection against adversarial attacks, model extraction, intellectual property theft, and data leakage
- Security and trust in semiconductor supply chains, including third-party IP protection, counterfeit detection, chip authentication, and secure fabrication and manufacturing
- Security of chiplet-based, heterogeneous, and 3D integrated systems, including die-to-die communication, inter-chip trust, and multi-die attack surfaces
- Post-quantum cryptography (PQC) hardware architectures, accelerators, and secure implementations
- Security of embedded systems, Internet of Things (IoT), edge devices, and cyber-physical systems, including hardware-based protection and secure firmware
- Hardware-assisted system security, including secure memory, confidential computing, information-flow protection, and runtime threat detection
- Security verification, vulnerability assessment, and hardware-based intrusion detection, including formal security analysis and security-aware design methodologies
- Security and trust challenges in emerging semiconductor devices, memory technologies, and computing platforms
- Other emerging topics related to hardware security, trusted computing, and resilient electronic systems
Design Test and Verification (DTV)
- Formal, assertion-based, simulation-based, and hybrid verification techniques for hardware and software systems
- Design-for-Testability (DFT), Automatic Test Equipment (ATE), and Built-In Self-Test (BIST) for digital, analog/mixed-signal, SoC, and memory components
- Test synthesis and synthesis-for-testability for improved coverage and quality
- Fault diagnosis, IDDQ testing, novel test methods, fault modeling, ATPG, and DPPM prediction
- SoC and IP testing strategies, including hierarchical and system-level test approaches
- Design methodologies linking testability to manufacturing and yield improvement
- Hardware/software co-verification and co-validation strategies
- Advanced verification methodologies and testbenches, including UVM, HDLs, and HVLs
- Formal and semi-formal validation techniques supporting functional safety and security
- Self-checking testbenches and novel methods for analog/mixed-signal verification
- Any other emerging topics related to design test and verification
Emerging Semiconductor Devices, Technologies & Processes (EDPT)
- Advanced transistor architectures and nanoscale semiconductor technologies, including gate-all-around (GAA) FETs, nanosheet/nanowire transistors, complementary FETs (CFETs), and emerging device scaling techniques
- Beyond-CMOS devices and emerging materials, including 2D semiconductors, ferroelectric devices, negative-capacitance FETs, and novel switching technologies for next-generation logic and memory
- Design, simulation, and modeling of emerging solid-state devices and materials
- Emerging non-volatile memory and logic technologies, such as STT-RAM, PC-RAM, RRAM, and memristors
- Applications of emerging devices in advanced computing domains, including cognitive, neuromorphic, and quantum computing
- Qubit technologies and quantum circuits for quantum information processing
- Specialty device technologies, including MEMS, NEMS, and other nanoelectronic devices
- Design-Technology Co-Optimization (DTCO) methodologies across ASIC, FPGA, RF, memory, and custom/semi-custom designs
- Advanced-node manufacturing techniques, including EUV lithography, directed self-assembly (DSA), and multiple patterning
- Advanced interconnect solutions, including air-gap structures and silicon photonics
- Modeling and optimization of emerging technology impacts on power, performance, area, cost, and reliability
- Design methods and tools for improving yield, manufacturability, and process robustness
- Other topics relevant to emerging device, process, and integration technologies
Circuit Design, Chiplets, 3D Integration & Advanced Packaging (ICAP)
- Chiplet architectures and heterogeneous integration, including partitioning, interoperability, modular design, and system-level optimization
- 2.5D/3D IC integration and advanced packaging, including silicon interposers, bridges, through-silicon vias (TSVs), hybrid bonding, and wafer-level packaging
- Die-to-die and chip-to-chip interconnects, including UCIe, high-bandwidth interfaces, signaling, and communication architectures
- 3D IC and chiplet design methodologies, including EDA flows, floorplanning, placement, routing, and multi-die design optimization
- Chip-package-system co-design, including signal integrity, power integrity, thermal management, and mechanical reliability
- Testing, verification, and reliability of chiplet-based and 3D systems, including design-for-testability (DFT), known-good-die strategies, yield optimization, and fault tolerance
- Silicon photonics and co-packaged optics (CPO), including photonic-electronic integration, optical interconnects, heterogeneous packaging, and chiplet-based optical I/O architectures
- Advanced digital, analog, RF, and mixed-signal circuit design, including low-power, high-performance, and variation-tolerant circuits
- Emerging circuit architectures for AI and high-performance computing, including compute-in-memory, near-memory computing, and energy-efficient accelerators
- Advanced memory and interconnect circuits, including high-bandwidth memory interfaces, emerging memory technologies, and on-chip/inter-die communication
- Power management and energy-efficient circuit techniques, including leakage reduction, dynamic power optimization, and power delivery for multi-die systems
- Adaptive, resilient, and self-monitoring circuits, including process-voltage-temperature (PVT) monitoring, aging compensation, and fault-tolerant design
- Circuits for IoT, edge AI, and emerging applications, including wireless interfaces, sensors, energy harvesting, and ultra-low-power systems
- Emerging device and circuit technologies, including beyond-CMOS circuits, novel integration approaches, and new design paradigms
- Other topics related to circuit design, chiplets, 3D integration, heterogeneous integration, and advanced packaging
Advanced Systems, Architectures & Design Methodologies (SDM)
- Architecture and design methodologies for complex computing systems, including multi-core and many-core processors, SoCs, GPUs, embedded systems, accelerators, and heterogeneous computing platforms
- Processor and microarchitecture design and optimization, including domain-specific and workload-optimized architectures
- Hardware/software co-design and co-optimization, including compiler–architecture interaction and cross-layer optimization
- System-level design-space exploration and multi-objective optimization for performance, power, energy, area, cost, reliability, and other design objectives
- System-level power, energy, and thermal management, including dynamic and workload-aware optimization techniques
- Memory-system architectures and optimization, including memory hierarchies, caches, shared memory systems, high-bandwidth memory, and memory-centric architectures
- System communication and interconnect architectures, including Networks-on-Chip (NoCs), coherent interconnects, memory fabrics, and scalable communication architectures
- Application- and workload-driven system architecture, including systems for data centers, edge computing, automotive, IoT, scientific computing, and other domain-specific applications
- Modeling, simulation, and performance analysis of computing systems, including architectural and system-level modeling frameworks
- Analysis and mitigation of process, voltage, temperature, aging, and workload variations at the architecture and system levels
- Reliability, resilience, fault tolerance, and adaptive system architectures
- Cyber-Physical Systems (CPS) architecture, modeling, design methodologies, and reliability
- FPGA-based and reconfigurable computing systems, including system prototyping, emulation, and hardware/software platforms
- Virtual platforms, digital twins, and system-level models for architecture exploration, performance evaluation, and hardware/software development
- Cross-layer optimization methodologies spanning applications, software, operating systems, compilers, architecture, and hardware
- System-level integration and architectural evaluation of emerging computing and memory technologies, where the primary contribution is at the system or architecture level
- Benchmarking, workload characterization, and evaluation methodologies for computing architectures and complex systems
- Other emerging topics related to computer architecture, system-level design, modeling, hardware/software co-design, and system optimization
Cognitive Computing Hardware (CCH)
- Neuromorphic computing, non-Von Neumann architectures, and brain-inspired hardware paradigms
- Hardware and architectures for neural networks, including deep learning and spiking neural networks
- Neural network acceleration using GPGPUs, FPGAs, dedicated ASICs, and custom silicon
- Cognitive-inspired computing systems and fundamentals for intelligent information processing
- AI-assisted cognitive computing methods and hardware/software co-design approaches
- Hardware architectures and techniques for reliable and robust machine learning, including fault tolerance, error resilience, and dependable AI acceleration
- Cognitive computing in large-scale systems: big data processing, sensing, and interaction
- Brain analysis and neuroscience-driven models for hardware design
- Internet of Cognitive Things, cognitive environments, and data-driven sensing systems
- Cognitive robots, intelligent agents, and edge intelligence platforms
- Energy-efficient and scalable cognitive computing hardware, including low-power neural processing, adaptive architectures, and resource-constrained AI systems
- Testbeds, prototype implementations, and emerging applications of cognitive hardware
- Other topics related to cognitive and intelligent computing hardware
Submission of Papers
Paper submissions must be made online through the ISQED 2027 paper submission portal at https://softconf.com/p/isqed2027/.
Authors are invited to submit original, previously unpublished papers accompanied by an abstract of approximately 200 words. Manuscripts must be a minimum of four (4) pages and must not exceed ten (10) pages. A font size of at least 10 points must be used, and manuscripts must conform to the IEEE conference paper format available at https://www.ieee.org/conferences/publishing/templates.
Manuscripts exceeding ten (10) pages, using a font size smaller than 10 points, or not conforming to the required IEEE format will not be reviewed. Submissions of fewer than four (4) pages will be considered Work-in-Progress (WIP) papers and reviewed accordingly.
To ensure a blind review process, authors must not include their names, affiliations, or any other identifying information in the manuscript or abstract. Complete contact information for the corresponding author must be entered separately through the online submission system.
The manuscripts identifying the name and/or affiliations of the authors in the submitted manuscript will be rejected without review. Please check the as-printed appearance of your paper before sending your paper. In case of any problems email isqedisqed@gmail.com.
See the MS Word template at the bottom of this page. Use the on-line paper submission procedure by clicking the following link: ON-LINE. If you have problem accessing the paper submission site it is located at: https://softconf.com/p/isqed2027
Work in Progress (WIP) Submission
Ongoing research projects can be presented at ISQED under the Work in Progress (WIP) category. This provides a unique opportunity to authors to receive early feedback on their current work. For more information please click HERE.
Workshop/Tutorial Proposals
Several workshop/tutorial sessions will be held on the first day, and would offer valuable opportunities for practicing professionals to refresh or upgrade their skills in quality-based IC design techniques, methodologies and tools. These sessions are intended to supplement the conference by providing in depth, practical and proven design solutions. Workshops/Tutorials will be taught by experts in the field, who are intimately involved with the issues and solutions in their perspective areas, from both industry and academia. If interested in offering a tutorial, please send your tutorial proposals to the ISQED workshop/tutorial committee to isqedisqed@gmail.com
The proposal should include:
- Title of Workshop/Tutorial
- Name of organizer
- Name(s), address, and affiliation of the Moderator
- Name(s), address, and affiliation of presenter(s)
- Half-page summary of each presenter's biography
You may send your proposal by email as text or as an Adobe PDF file. The presentations must be technical, up to date, relevant, and target the design community. Marketing presentations will not be accepted. In order to meet the conference timeline, we would like to have your proposal no later than Oct. 22, 2026. Please check the archive section of the web site for a listing of past tutorials.
Templates and Resouces for Authors & Speakers