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CALL FOR PAPERS
Domain specific systems are an increasingly important computing environment for many people and businesses. As the information technologies emerge into various real-world applications such as autonomous driving, IoT (Internet of Things), CPS (Cyber physical systems) and health care applications in the 4th industrial revolution era, the interest in the specialized domain specific computing systems is increasing significantly. In addition to the conventional computing platforms, domain specific computing systems have a lot of design challenges including specialized hardware components like hardware accelerator, optimized library and domain specific languages. This workshop focuses on domain specific system design in both hardware and software aspects and their interaction to improve the availability and efficiency in the emerging real-world applications. The main theme of this workshop in this year is the HW/SW components for domain specific systems. Topics of particular interest include, but are not limited to:
Application analysis and workload characterization to design domain specific system for emerging applications, such as autonomous driving, IoT and health care applications.
Domain specific processor/system architectures and hardware features for domain specific systems;
Low-power, energy-efficient domain specific accelerator/system architectures for on-device AI systems;
Hardware accelerators for domain specific systems;
Storage architectures for domain specific systems;
Experiences in domain specific system development;
Novel techniques to improve responsiveness by exploiting domain specific systems;
Novel techniques to improve performance/energy for domain specific systems;
Domain specific systems performance evaluation methodologies;
Application benchmarks for domain specific systems;
Enabling technologies for domain specific systems (smart edge devices, smart sensors, energy harvesting, sensor networks, sensor fusion etc.);
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Invited Talk I
- Speaker : Joel S. Emer (Professor, MIT / Distinguished Research Scientist, Nvidia)
- Talk Title : A Structured Approach to the Hardware/Software Co-Design of an AI-Accelerator
- Abstract :
Over the past few years, efforts to address the challenges of the end of Moore's
Law has led to significant rise in AI-focused accelerators. However, the
well-understood pipeline stages used in the past for designing and optimizing
general-purpose processors does not apply to these accelerators. As a result,
there has not been a systematic way to express the range of design features used
by these accelerators. This makes it difficult to understand the impact of each
design choice and compare or extend the state-of-the-art.
In this talk, I will present a novel separation of concerns taxonomy to better
understand and design AI-accelerators. One aspect of this approach is the use
tensor algebraic notation to describe and optimize the computation. Second, in
an analogous fashion to our prior work that categorized DNN dataflows into
patterns like weight stationary and output stationary, this talk will try to
provide a set of options that characterize the other attributes of tensor
accelerators. Thus, rather than just presenting a single specific design, I will
present a generalized framework for describing computations, dataflows and the
placement of activity. In this framework, this separation of concerns is
intended to better understand design choices and facilitate the exploration of
the wide design space of tensor accelerators. Thus, using this common language,
I will show how the choices invoked were used to generate our high-performance
transformer accelerator.
- Bio :
Joel S. Emer is a professor of Electrical Engineering and Computer Science at
MIT. He also is a Senior Distinguished Research Scientistworks at Nvidia. Prior
to joining Nvidia, he worked at Intel where he was an Intel Fellow and Director
of Microarchitecture Research. Previously he worked at Compaq and Digital
Equipment Corporation (DEC). His current research focus is on the systematic
design and modeling of accelerators. In the past, he has made architectural
contributions to a number of VAX, Alpha and X86 processors and is recognized as
one of the developers of the widely employed quantitative approach to processor
performance evaluation. He has also been recognized for his contributions in the
advancement of deep learning accelerator design, spatial and parallel
architectures, processor reliability analysis, memory dependence prediction,
pipeline and cache organization, performance modeling methodologies and
simultaneous multithreading. He earned a doctorate in electrical engineering
from the University of Illinois in 1979. He received a bachelor's degree with
highest honors in electrical engineering in 1974, and his master's degree in
1975 -- both from Purdue University. Among his honors, he is a Fellow of both
the ACM and IEEE, and a member of the NAE. He also received both the
Eckert-Mauchly award and the B. Ramakrishan Rau award for lifetime contributions
in computer architecture.
Invited Talk II
- Speaker : Jeehoon Kang (Chief Research Officer (CRO), FuriosaAI)
- Talk Title : Programming Furiosa RNGD
- Abstract :
AI agents are becoming kernel authors. RNGD programming must expose tensor intent and resource use to the compiler, then return correctness and execution cost to the author. RNGD Virtual ISA (vISA) expresses tensor semantics, mapping, data movement, and engine use. The furiosa-opt toolchain checks and lowers that program, then surfaces diagnostics, schedules, correctness results, and runtime profiles.
Two RNGD case studies show programmability in practice. The NPU Model Optimization Competition gives external developers a path to build and evaluate kernels. In an internal Mistral-Nemo-12B study, an AI agent iteratively optimized kernels and the serving engine using compiler and runtime feedback, bringing performance close to the modeled attainable ceiling.
- Bio :
Dr. Jeehoon Kang is the Chief Research Officer (CRO) at FuriosaAI. Before joining the industry, he was an Associate Professor of Computer Science at KAIST after receiving his Ph.D. under the supervision of Prof. Chung-Kil Hur at Seoul National University. As a specialist in concurrency, compilers, and software verification, he has published over 30 papers in premier venues such as MICRO, ASPLOS, SOSP, and PLDI.
At FuriosaAI, Dr. Kang applies his academic expertise in computer systems to solve engineering challenges in industrial-scale deployment. He leads the development of kernel programming models to maximize the performance of the RNGD accelerator, alongside building the application software stack for reinforcement learning and agentic AI.
Invited Talk III
- Speaker : Daichi Fujiki (Associate Professor, Institute of Science Tokyo)
- Talk Title :
Rethinking What AI Hardware Needs to Remember
- Abstract :
As machine learning workloads grow in scale and complexity, data movement increasingly limits accelerator efficiency. This talk explores memory-centric algorithm–architecture co-design, focusing on how rethinking data representations can reduce memory demands. I begin with strong lottery tickets, which enable architectures that regenerate neural network weights on chip rather than fetching them from memory. I then show how vector-quantized data representations can improve locality in irregular workloads and, when co-designed with processing-in-memory architectures, alleviate bandwidth and capacity bottlenecks. Finally, I extend this perspective to robot foundation models, where storing and reusing past experience can reduce redundant inference. Together, I show how rethinking the relationship between memory and computation can enable more efficient and responsive AI systems.
- Bio :
Daichi Fujiki is an Associate Professor in the AI Computing Research Unit at the Institute of Science Tokyo, formerly known as Tokyo Tech. His research interests include memory-centric systems for AI computing and domain-specific architectures for data-intensive applications. He received the IEEE Computer Society Tokyo/Japan Joint Local Chapters Young Author Award in 2022. He received a Ph.D. in 2022 and an M.S.Eng in 2017 from the University of Michigan, Ann Arbor, and a B.E. in 2016 from Keio University, Japan.
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SUBMISSION GUIDELINE
Submit a 2-page presentation abstract to a web-based submission system (https://cmt3.research.microsoft.com/DoSSA2026) by September 1, 2026 → September 15, 2026. Notification of acceptance will be sent out by September 22, 2026. Final paper and presentation material (to be posted on the workshop web site) due October 13, 2026. For additional information regarding paper submissions, please contact the organizers.
IMPORTANT DATES
Abstract submission : September 1, 2026 → September 15, 2026
Author notification : September 22, 2026
Final camera-ready paper : October 13, 2026
Workshop : November 1, 2026
Workshop Organizers
Hyesoon Kim, Georgia Tech (hyesoon@cc.gatech.edu)
Gi-Ho Park, Sejong Univ. (ghpark@sejong.ac.kr)
Jaewoong Sim, Seoul National Univ. (jaewoong@snu.ac.kr)
Web Chair
SungYun Bay, Sejong Univ. (sungyun.bay@sju.ac.kr)
Prior DOSSA
DOSSA-1 (https://prism.sejong.ac.kr/dossa-1)
DOSSA-2 (https://prism.sejong.ac.kr/dossa-2)
DOSSA-3 (https://prism.sejong.ac.kr/dossa-3)
DOSSA-4 (https://prism.sejong.ac.kr/dossa-4)
DOSSA-5 (https://prism.sejong.ac.kr/dossa-5)
DOSSA-6 (https://prism.sejong.ac.kr/dossa-6)
DOSSA-7 (https://prism.sejong.ac.kr/dossa-7)
The Microsoft CMT service was used for managing the peer-reviewing process for this conference. This service was provided for free by Microsoft and they bore all expenses, including costs for Azure cloud services as well as for software development and support.
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