Difference between revisions of "Resource:Previous Seminars"

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{{Resource:Previous_Seminars}}
=== History ===
=== History ===
====2024====
{{Hist_seminar
|abstract = On-device Deep Neural Network (DNN) training has been recognized as crucial for privacy-preserving machine learning at the edge. However, the intensive training workload and limited onboard computing resources pose significant challenges to the availability and efficiency of model training. While existing works address these challenges through native resource management optimization, we instead leverage our observation that edge environments usually comprise a rich set of accompanying trusted edge devices with idle resources beyond a single terminal. We propose Asteroid, a distributed edge training system that breaks the resource walls across heterogeneous edge devices for efficient model training acceleration. Asteroid adopts a hybrid pipeline parallelism to orchestrate distributed training, along with a judicious parallelism planning for maximizing throughput under certain resource constraints. Furthermore, a fault-tolerant yet lightweight pipeline replay mechanism is developed to tame the device-level dynamics for training robustness and performance stability. We implement Asteroid on heterogeneous edge devices with both vision and language models, demonstrating up to 12.2× faster training than conventional parallelism methods and 2.1× faster than state-of-the-art hybrid parallelism methods through evaluations. Furthermore, Asteroid can recover training pipeline 14× faster than baseline methods while preserving comparable throughput despite unexpected device exiting and failure.
|confname = MobiCom'24
|link = https://dl.acm.org/doi/abs/10.1145/3636534.3649363
|title= Asteroid: Resource-Efficient Hybrid Pipeline Parallelism for Collaborative DNN Training on Heterogeneous Edge Devices
|speaker=Congrong
|date=2024-11-29
}}
{{Hist_seminar
|abstract = The need for cooperation among intelligent edge devices has popularized cooperative multi-agent reinforcement learning (MARL) in multi-target coverage. However, many research efforts rely heavily on parameter sharing among homogeneous agents, which hampers coverage performance. The heterogeneity of computing and sensing capabilities, along with the time-varying dynamics of computing resources, pose significant challenges. To address these challenges, we propose a resource-sensitive multi-agent reinforcement learning framework based on heterogeneous edge devices (SmartHE). SmartHE decomposes the target coverage task into two hierarchical levels: 1) Executor-level task: A central coordinator assigns a subset of executors (i.e., cameras or agents) to execute action policies, aiming to minimize overall policy inference time and energy consumption by leveraging resource heterogeneity. 2) Target-level task: Each executor ignores irrelevant targets that fall outside the coverage radius of the executor based on the estimated target states and ignores redundant targets that could be more effectively covered by other executors based on the utility estimation. This enables each executor to focus on extracting features that optimize coverage. Through this dual-task framework, SmartHE efficiently improves the system performance.
|confname = IDEA
|link = https://mobinets.cn/site/Resource:Seminar
|title= SmartHE: Resource-sensitive MARL framework based on heterogeneous edge devices
|speaker=Xianyang
|date=2024-11-29
}}
{{Hist_seminar
|abstract = Collaborative inference is the current state-of-the-art solution for mobile-server neural network inference offloading. However, we find that existing collaborative inference solutions only focus on partitioning the DNN computation, which is only a small part of achieving an efficient DNN offloading system. What ultimately determines the performance of DNN offloading is how the execution system utilizes the characteristics of the given DNN offloading task on the mobile, network, and server resources of the offloading environment. To this end, we design CoActo, a DNN execution system built from the ground up for mobile-server inference offloading. Our key design philosophy is Coactive Inference Offloading, which is a new, improved concept of DNN offloading that adds two properties, 1) fine-grained expression of DNNs and 2) concurrency of runtime resources, to existing collaborative inference. In CoActo, system components go beyond simple model splitting of existing approaches and operate more proactively to achieve the coactive execution of inference workloads. CoActo dynamically schedules concurrent interleaving of the mobile, server, and network operations to actively increase resource utilization, enabling lower end-to-end latency. We implement CoActo for various mobile devices and server environments and evaluate our system with distinct environment settings and DNN models. The experimental results show that our system achieves up to 2.1 times speed-up compared to the state-of-the-art collaborative inference solutions.
|confname = Mobisys'24
|link = https://dl.acm.org/doi/10.1145/3643832.3661885
|title= CoActo: CoActive Neural Network Inference Offloading with Fine-grained and Concurrent Execution
|speaker=Zhenhua
|date=2024-11-22
}}
{{Hist_seminar
|abstract = Caching is an indispensable technique for low-cost and fast data serving. The eviction algorithm, at the heart of a cache, has been primarily designed to maximize efficiency—reducing the cache miss ratio. Many eviction algorithms have been designed in the past decades. However, they all trade off throughput, simplicity, or both for higher efficiency. Such a compromise often hinders adoption in production systems.This work presents SIEVE, an algorithm that is simpler than LRU and provides better than state-of-the-art efficiency and scalability for web cache workloads. We implemented SIEVE in five production cache libraries, requiring fewer than 20 lines of code changes on average. Our evaluation on 1559 cache traces from 7 sources shows that SIEVE achieves up to 63.2% lower miss ratio than ARC. Moreover, SIEVE has a lower miss ratio than 9 state-of-the-art algorithms on more than 45% of the 1559 traces, while the next best algorithm only has a lower miss ratio on 15%. SIEVE's simplicity comes with superior scalability as cache hits require no locking. Our prototype achieves twice the throughput of an optimized 16-thread LRU implementation. SIEVE is more than an eviction algorithm; it can be used as a cache primitive to build advanced eviction algorithms just like FIFO and LRU.
|confname =NSDI'24
|link = https://www.usenix.org/conference/nsdi24/presentation/zhang-yazhuo
|title= SIEVE is Simpler than LRU: an Efficient Turn-Key Eviction Algorithm for Web Caches
|speaker=Haotian
|date=2024-11-22
}}
{{Hist_seminar
|abstract = In this paper, we revisit the problem of the current routing system in terms of prediction scalability and routing result optimality. Specifically, the current traffic prediction models are not suitable for large urban networks due to the incomplete information of traffic conditions. Besides, existing routing systems can only plan the routes based on the past traffic conditions and struggle to update the optimal route for vehicles in real-time. As a result, the actual route taken by vehicles is different from the ground-truth optimal path. Therefore, we propose a Just-In-Time Predictive Route Planning framework to tackle these two problems. Firstly, we propose a Travel Time Constrained Top- kn Shortest Path algorithm which pre-computes a set of candidate paths with several switch points. This empowers vehicles to continuously have the opportunity to switch to better paths taking into account real-time traffic condition changes. Moreover, we present a query-driven prediction paradigm with ellipse-based searching space estimation, along with an efficient multi-queries handling mechanism. This not only allows for targeted traffic prediction by prioritizing regions with valuable yet outdated traffic information, but also provides optimal results for multiple queries based on real-time traffic evolution. Evaluations on two real-life road networks demonstrate the effectiveness and efficiency of our framework and methods.
|confname =ICDE'24
|link = https://ieeexplore.ieee.org/document/10598147/authors#authors
|title= A Just-In-Time Framework for Continuous Routing
|speaker=Zhenguo
|date=2024-11-8
}}
{{Hist_seminar
|abstract = Many networking tasks now employ deep learning (DL) to solve complex prediction and optimization problems. However, current design philosophy of DL-based algorithms entails intensive engineering overhead due to the manual design of deep neural networks (DNNs) for different networking tasks. Besides, DNNs tend to achieve poor generalization performance on unseen data distributions/environments. Motivated by the recent success of large language models (LLMs), this work studies the LLM adaptation for networking to explore a more sustainable design philosophy. With the powerful pre-trained knowledge, the LLM is promising to serve as the foundation model to achieve "one model for all tasks" with even better performance and stronger generalization. In pursuit of this vision, we present NetLLM, the first framework that provides a coherent design to harness the powerful capabilities of LLMs with low efforts to solve networking problems. Specifically, NetLLM empowers the LLM to effectively process multimodal data in networking and efficiently generate task-specific answers. Besides, NetLLM drastically reduces the costs of fine-tuning the LLM to acquire domain knowledge for networking. Across three networking-related use cases - viewport prediction, adaptive bitrate streaming and cluster job scheduling, we showcase that the NetLLM-adapted LLM significantly outperforms state-of-the-art algorithms.
|confname =SIGCOMM'24
|link = https://dl.acm.org/doi/abs/10.1145/3651890.3672268
|title= NetLLM: Adapting Large Language Models for Networking
|speaker=Yinghao
|date=2024-11-8
}}
{{Hist_seminar
|abstract = Sparsely-activated Mixture-of-Expert (MoE) layers have found practical applications in enlarging the model size of large-scale foundation models, with only a sub-linear increase in computation demands. Despite the wide adoption of hybrid parallel paradigms like model parallelism, expert parallelism, and expert-sharding parallelism (i.e., MP+EP+ESP) to support MoE model training on GPU clusters, the training efficiency is hindered by communication costs introduced by these parallel paradigms. To address this limitation, we propose Parm, a system that accelerates MP+EP+ESP training by designing two dedicated schedules for placing communication tasks. The proposed schedules eliminate redundant computations and communications and enable overlaps between intra-node and inter-node communications, ultimately reducing the overall training time. As the two schedules are not mutually exclusive, we provide comprehensive theoretical analyses and derive an automatic and accurate solution to determine which schedule should be applied in different scenarios. Experimental results on an 8-GPU server and a 32-GPU cluster demonstrate that Parm outperforms the state-of-the-art MoE training system, DeepSpeed-MoE, achieving 1.13× to 5.77× speedup on 1296 manually configured MoE layers and approximately 3× improvement on two real-world MoE models based on BERT and GPT-2.
|confname =INFOCOM'24
|link = https://ieeexplore.ieee.org/abstract/document/10621327
|title= Parm: Efficient Training of Large Sparsely-Activated Models with Dedicated Schedules
|speaker=Mengqi
|date=2024-11-1
}}
{{Hist_seminar
|abstract = HD map is a key enabling technology towards fully autonomous driving. We propose VI-Map, the first system that leverages roadside infrastructure to enhance real-time HD mapping for autonomous driving. The core concept of VI-Map is to exploit the unique cumulative observations made by roadside infrastructure to build and maintain an accurate and current HD map. This HD map is then fused with on-vehicle HD maps in real time, resulting in a more comprehensive and up-to-date HD map. By extracting concise bird-eye-view features from infrastructure observations and utilizing vectorized map representations, VI-Map incurs low compute and communication overhead. We conducted end-to-end evaluations of VI-Map on a real-world testbed and a simulator. Experiment results show that VI-Map can construct decentimeter-level (up to 0.3 m) HD maps and achieve real-time (up to a delay of 42 ms) map fusion between driving vehicles and roadside infrastructure. This represents a significant improvement of 2.8× and 3× in map accuracy and coverage compared to the state-of-the-art online HD mapping approaches. A video demo of VI-Map on our real-world testbed is available at https://youtu.be/p2RO65R5Ezg.
|confname=Mobicom'23
|link = https://dl.acm.org/doi/abs/10.1145/3570361.3613280
|title= VI-Map: Infrastructure-Assisted Real-Time HD Mapping for Autonomous Driving
|speaker=Wangyang
|date=2024-11-1
}}
{{Hist_seminar
|abstract = Video super-resolution (VSR) on mobile devices aims to restore high-resolution frames from their low-resolution counterparts, satisfying the requirements of performance, FLOPs and latency. On one hand, partial feature processing, as a classic and acknowledged strategy, is developed in current studies to reach an appropriate trade-off between FLOPs and accuracy. However, the splitting of partial feature processing strategy are usually performed in a blind manner, thereby reducing the computational efficiency and performance gains. On the other hand, current methods for mobile platforms primarily treat VSR as an extension of single-image super-resolution to reduce model calculation and inference latency. However, lacking inter-frame information interaction in current methods results in a suboptimal latency and accuracy trade-off. To this end, we propose a novel architecture, termed Feature Aggregating Network with Inter-frame Interaction (FANI), a lightweight yet considering frame-wise correlation VSR network, which could achieve real-time inference while maintaining superior performance. Our FANI accepts adjacent multi-frame low-resolution images as input and generally consists of several fully-connection-embedded modules, i.e., Multi-stage Partial Feature Distillation (MPFD) for capturing multi-level feature representations. Moreover, considering the importance of inter-frame alignment, we further employ a tiny Attention-based Frame Alignment (AFA) module to promote inter-frame information flow and aggregation efficiently. Extensive experiments on the well-known dataset and real-world mobile device demonstrate the superiority of our proposed FANI, which means that our FANI could be well adapted to mobile devices and produce visually pleasing results.
|confname = ICDM'23
|link = https://ieeexplore.ieee.org/abstract/document/10415812
|title= Feature Aggregating Network with Inter-Frame Interaction for Efficient Video Super-Resolution
|speaker=Shuhong
|date=2024-10-25
}}
{{Hist_seminar
|abstract = The proliferation of edge devices has pushed computing from the cloud to the data sources, and video analytics is among the most promising applications of edge computing. Running video analytics is compute- and latency-sensitive, as video frames are analyzed by complex deep neural networks (DNNs) which put severe pressure on resource-constrained edge devices. To resolve the tension between inference latency and resource cost, we present Polly, a cross-camera inference system that enables co-located cameras with different but overlapping fields of views (FoVs) to share inference results between one another, thus eliminating the redundant inference work for objects in the same physical area. Polly’s design solves two basic challenges of cross-camera inference: how to identify overlapping FoVs automatically, and how to share inference results accurately across cameras. Evaluation on NVIDIA Jetson Nano with a real-world traffic surveillance dataset shows that Polly reduces the inference latency by up to 71.4% while achieving almost the same detection accuracy with state-of-the-art systems.
|confname= INFOCOM'23
|link = https://ieeexplore.ieee.org/stamp/stamp.jsp?tp=&arnumber=10229045
|title= Cross-Camera Inference on the Constrained Edge
|speaker=Xinyan
|date=2024-10-25
}}
{{Hist_seminar
|abstract = Smart cameras with on-device deep learning inference capabilities are enabling distributed video analytics at the data source without sending raw video data over the often unreliable and congested wireless network. However, how to unleash the full potential of the computing power of the camera network requires careful coordination among the distributed cameras, catering to the uneven workload distribution and the heterogeneous computing capabilities. This paper presents CrossVision, a distributed framework for real-time video analytics, that retains all video data on cameras while achieving low inference delay and high inference accuracy. The key idea behind CrossVision is that there is a significant information redundancy in the video content captured by cameras with overlapped Field-of-Views (FoVs), which can be exploited to reduce inference workload as well as improve inference accuracy between correlated cameras. CrossVision consists of three main components to realize its function: a Region-of-Interest (RoI) Matcher that discovers video content correlation based on a segmented FoV transformation scheme; a Workload Balancer that implements a randomized workload balancing strategy based on a bulk-queuing analysis, taking into account the cameras’ predicted future workload arrivals; an Accuracy Guard that ensures that the inference accuracy is not sacrificed as redundant information is discarded. We evaluate CrossVision in a hardware-augmented simulator and on real-world cross-camera datasets, and the results show that CrossVision is able to significantly reduce inference delay while improving the inference accuracy compared to a variety of baseline approaches.
|confname= TMC'24
|link = https://ieeexplore.ieee.org/stamp/stamp.jsp?tp=&arnumber=10202594
|title= CrossVision: Real-Time On-Camera Video Analysis via Common RoI Load Balancing
|speaker=Xinyan
|date=2024-10-25
}}
{{Hist_seminar
|abstract = LoRa is a promising technology that offers ubiquitous low-power IoT connectivity. With the features of multi-channel communication, orthogonal transmission, and spectrum sharing, LoRaWAN is poised to connect millions of IoT devices across thousands of logical channels. However, current LoRa gateways utilize hardwired Rx chains that cover only a small fraction (<1%) of the logical channels, limiting the potential for massive LoRa communications. This paper presents XGate, a novel gateway design that uses a single Rx chain to concurrently receive packets from all logical channels, fundamentally enabling scalable LoRa transmission and flexible network access. Unlike hardwired Rx chains in the current gateway design, XGate allocates resources including software-controlled Rx chains and demodulators based on the extracted meta information of incoming packets. XGate addresses a series of challenges to efficiently detect incoming packets without prior knowledge of their parameter configurations. Evaluations show that XGate boosts LoRa concurrent transmissions by 8.4× than state-of-the-art.
|confname=Mobicom' 24
|link = https://dl.acm.org/doi/pdf/10.1145/3636534.3649375
|title= Revolutionizing LoRa Gateway with XGate: Scalable Concurrent Transmission across Massive Logical Channels
|speaker=Chenkai
|date=2024-10-18
}}
{{Hist_seminar
|abstract = Deep learning training (DLT), e.g., large language model (LLM) training, has become one of the most important services in multitenant cloud computing. By deeply studying in-production DLT jobs, we observed that communication contention among different DLT jobs seriously influences the overall GPU computation utilization, resulting in the low efficiency of the training cluster. In this paper, we present Crux, a communication scheduler that aims to maximize GPU computation utilization by mitigating the communication contention among DLT jobs. Maximizing GPU computation utilization for DLT, nevertheless, is NP-Complete; thus, we formulate and prove a novel theorem to approach this goal by GPU intensity-aware communication scheduling. Then, we propose an approach that prioritizes the DLT flows with high GPU computation intensity, reducing potential communication contention. Our 96-GPU testbed experiments show that Crux improves 8.3% to 14.8% GPU computation utilization. The large-scale production trace-based simulation further shows that Crux increases GPU computation utilization by up to 23% compared with alternatives including Sincronia, TACCL, and CASSINI.
|confname=SIGCOMM' 24
|link = https://dl.acm.org/doi/pdf/10.1145/3651890.3672239
|title= Crux: GPU-Efficient Communication Scheduling for Deep Learning Training
|speaker=Youwei
|date=2024-10-18
}}
{{Hist_seminar
|abstract = Zero-shot object navigation is a challenging task for home-assistance robots. This task emphasizes visual grounding, commonsense inference and locomotion abilities, where the first two are inherent in foundation models. But for the locomotion part, most works still depend on map-based planning approaches. The gap between RGB space and map space makes it difficult to directly transfer the knowledge from foundation models to navigation tasks. In this work, we propose a Pixel-guided Navigation skill (PixNav), which bridges the gap between the foundation models and the embodied navigation task. It is straightforward for recent foundation models to indicate an object by pixels, and with pixels as the goal specification, our method becomes a versatile navigation policy towards all different kinds of objects. Besides, our PixNav is a pure RGB-based policy that can reduce the cost of homeassistance robots. Experiments demonstrate the robustness of the PixNav which achieves 80+% success rate in the local path-planning task. To perform long-horizon object navigation, we design an LLM-based planner to utilize the commonsense knowledge between objects and rooms to select the best waypoint. Evaluations across both photorealistic indoor simulators and real-world environments validate the effectiveness of our proposed navigation strategy.
|confname=ICRA' 24
|link = https://ieeexplore.ieee.org/document/10610499
|title= Bridging Zero-shot Object Navigation and Foundation Models through Pixel-Guided Navigation Skill
|speaker=Qinyong
|date=2024-10-11
}}
{{Hist_seminar
|abstract = Datacenter networks today provide best-effort delivery—messages may observe unpredictable queueing, delays, and drops due to switch buffer overflows within the network. Such weak guarantees reduce the set of assumptions that system designers can rely upon from the network, thus introducing inefficiency and complexity in host hardware and software. We present Harmony, a datacenter network architecture that provides powerful "congestion-free" message delivery guarantees—each message, once transmitted by the sender, observes bounded queueing at each switch in the network. Thus, network delays are bounded in failure-free scenarios, and congestion-related drops are completely eliminated. We establish, both theoretically and empirically, that Harmony provides such powerful guarantees with near-zero overheads compared to best-effort delivery networks: it incurs a tiny additive latency overhead that diminishes with message sizes, while achieving near-optimal network utilization.
|confname=NSDI' 24
|link = https://www.usenix.org/conference/nsdi24/presentation/agarwal-saksham
|title= Harmony: A Congestion-free Datacenter Architecture
|speaker=Junzhe
|date=2024-10-11
}}
{{Hist_seminar
|abstract = Overlapping cameras offer exciting opportunities to view a scene from different angles, allowing for more advanced, comprehensive and robust analysis. However, existing video analytics systems for multi-camera streams are mostly limited to (i) per-camera processing and aggregation and (ii) workload-agnostic centralized processing architectures. In this paper, we present Argus, a distributed video analytics system with cross-camera collaboration on smart cameras. We identify multi-camera, multi-target tracking as the primary task of multi-camera video analytics and develop a novel technique that avoids redundant, processing-heavy identification tasks by leveraging object-wise spatio-temporal association in the overlapping fields of view across multiple cameras. We further develop a set of techniques to perform these operations across distributed cameras without cloud support at low latency by (i) dynamically ordering the camera and object inspection sequence and (ii) flexibly distributing the workload across smart cameras, taking into account network transmission and heterogeneous computational capacities. Evaluation of three real-world overlapping camera datasets with two Nvidia Jetson devices shows that Argus reduces the number of object identifications and end-to-end latency by up to 7.13× and 2.19× (4.86× and 1.60× compared to the state-of-the-art), while achieving comparable tracking quality.
|confname=TMC' 24
|link = https://ieeexplore.ieee.org/abstract/document/10682605
|title= Argus: Enabling Cross-Camera Collaboration for Video Analytics on Distributed Smart Cameras
|speaker=Bairong
|date=2024-9-29
}}
{{Hist_seminar
|abstract = We present FarfetchFusion, a fully mobile live 3D telepresence system. Enabling mobile live telepresence is a challenging problem as it requires i) realistic reconstruction of the user and ii) high responsiveness for immersive experience. We first thoroughly analyze the live 3D telepresence pipeline and identify three critical challenges: i) 3D data streaming latency and compression complexity, ii) computational complexity of volumetric fusion-based 3D reconstruction, and iii) inconsistent reconstruction quality due to sparsity of mobile 3D sensors. To tackle the challenges, we propose a disentangled fusion approach, which separates invariant regions and dynamically changing regions with our low-complexity spatio-temporal alignment technique, topology anchoring. We then design and implement an end-to-end system, which achieves realistic reconstruction quality comparable to existing server-based solutions while meeting the real-time performance requirements (<100 ms end-to-end latency, 30 fps throughput, <16 ms motion-to-photon latency) solely relying on mobile computation capability.
|confname=MobiCom' 23
|link = https://dl.acm.org/doi/abs/10.1145/3570361.3592525
|title= FarfetchFusion: Towards Fully Mobile Live 3D Telepresence Platform
|speaker=Mengfan
|date=2024-9-29
}}
{{Hist_seminar
|abstract = Increasing bandwidth demands of mobile video streaming pose a challenge in optimizing the Quality of Experience (QoE) for better user engagement. Multipath transmission promises to extend network capacity by utilizing multiple wireless links simultaneously. Previous studies mainly tune the packet scheduler in multipath transmission, expecting higher QoE by accelerating transmission. However, since Adaptive BitRate (ABR) algorithms overlook the impact of multipath scheduling on throughput prediction, multipath adaptive streaming can even experience lower QoE than single-path. This paper proposes Chorus, a cross-layer framework that coordinates multipath scheduling with adaptive streaming to optimize QoE jointly. Chorus establishes two-way feedback control loops between the server and the client. Furthermore, Chorus introduces Coarse-grained Decisions, which assist appropriate bitrate selection by considering the scheduling decision in throughput prediction, and Finegrained Corrections, which meet the predicted throughput by QoE-oriented multipath scheduling. Extensive emulation and real-world mobile Internet evaluations show that Chorus outperforms the state-of-the-art MPQUIC scheduler, improving average QoE by 23.5% and 65.7%, respectively.
|confname=MobiCom' 24
|link = https://dl.acm.org/doi/pdf/10.1145/3636534.3649359
|title= Chorus: Coordinating Mobile Multipath Scheduling and Adaptive Video Streaming
|speaker=Jiahao
|date=2024-9-13
}}
{{Hist_seminar
|abstract = In Distributed Quantum Computing (DQC), quantum bits (qubits) used in a quantum circuit may be distributed on multiple Quantum Computers (QCs) connected by a Quantum Data Network (QDN). To perform a quantum gate operation involving two qubits on different QCs, we have to establish an Entanglement Connection (EC) between their host QCs. Existing EC establishment schemes result in a long EC establishment time, and low quantum resource utilization.In this paper, we propose an Asynchronous Entanglement Routing and Provisioning (AEPR) scheme to minimize the task completion time in DQC systems. AEPR has three distinct features: (i). Entanglement Paths (EPs) for a given SD pair are predetermined to eliminate the need for runtime calculation; (ii). Entanglement Links (ELs) are created proactively to reduce the time needed create EL on demand; and (iii). For a given EC request, quantum swapping along an EP is performed by a repeater whenever two adjacent ELs are created, so precious quantum resources at the repeater can be released immediately thereafter for other ELs and ECs. Extensive simulations show that AEPR can save up to 76.05% of the average task completion time in DQC systems compared with the state-of-the-art entanglement routing schemes designed to maximize QDN throughput.
|confname=INFOCOM' 23
|link = https://doi.org/10.1109/infocom53939.2023.10229101
|title= Asynchronous Entanglement Provisioning and Routing for Distributed Quantum Computing
|speaker=Yaliang
|date=2024-9-13
}}
{{Hist_seminar
|abstract = Recent advances in network and mobile computing.
|confname=Talk
|link=http://mobinets.org/index.php?title=Resource:Paper_Carnival_2024
|title=[[Resource:Paper_Carnival_2024|Paper Carnival 2024]]
|speaker=All
|date=2024-9-5 ~ 2024-9-6
}}
{{Hist_seminar
|confname=ICNP'23
|link=https://ieeexplore.ieee.org/abstract/document/10355583
|title=Hi2LoRa: Exploring Highly Dimensional and Highly Accurate Features to Push LoRaWAN Concurrency Limits with Low Implementation Cost
|speaker=Jiyi
|date=2024-07-05}}
{{Hist_seminar
|confname=ICRA'23
|link=https://ieeexplore.ieee.org/abstract/document/10160341
|title=D2CoPlan: A Differentiable Decentralized Planner for Multi-Robot Coverage
|speaker=Xianyang
|date=2024-07-05}}
{{Hist_seminar
|confname=TMC'24
|link=https://ieeexplore.ieee.org/abstract/document/10440565
|title=Joint Deployment of Truck-drone Systems for Camera-based Object Monitoring
|speaker=Luwei
|date=2024-06-28}}
{{Hist_seminar
|confname=NSDI'23
|link=https://www.usenix.org/conference/nsdi23/presentation/li-zhuqi
|title=Dashlet: Taming Swipe Uncertainty for Robust Short Video Streaming
|speaker=Mengqi
|date=2024-06-28}}
{{Hist_seminar
|confname=MobiCom'23
|link=https://arxiv.org/pdf/2308.06053
|title=Cost-effective On-device Continual Learning over Memory Hierarchy with Miro
|speaker=Jiale
|date=2024-06-14}}
{{Hist_seminar
|confname=SEC'23
|link=https://www.cs.hunter.cuny.edu/~sdebroy/publication-files/SEC2023_CR.pdf
|title=On Balancing Latency and Quality of Edge-Native Multi-View 3D Reconstruction
|speaker=Yang Wang
|date=2024-06-14}}
{{Hist_seminar
|confname=MobiSys'21
|link=https://dl.acm.org/doi/10.1145/3458864.3466867
|title=RayTrack: enabling interference-free outdoor mobile VLC with dynamic field-of-view
|speaker=Mengyu
|date=2024-06-07}}
{{Hist_seminar
|confname=MM'23
|link=https://dl.acm.org/doi/pdf/10.1145/3581783.3613907
|title=Hermes: Leveraging Implicit Inter-Frame Correlation for Bandwidth-Efficient Mobile Volumetric Video Streaming
|speaker=Mengfan
|date=2024-06-07}}
{{Hist_seminar
|confname=SIGCOMM '23
|link=https://dl.acm.org/doi/pdf/10.1145/3603269.3604853
|title=Masking Corruption Packet Losses in Datacenter Networks with Link-local Retransmission
|speaker=Jiacheng
|date=2024-05-31}}
{{Hist_seminar
|confname=FAST '23
|link=https://www.usenix.org/system/files/fast23-li-pengfei.pdf
|title=ROLEX: A Scalable RDMA-oriented Learned Key-Value Store for Disaggregated Memory Systems
|speaker=Haotian
|date=2024-05-31}}
{{Hist_seminar
|confname=ICRA 2023
|link=https://ieeexplore.ieee.org/document/10161345
|title=Zero-shot Active Visual Search (ZAVIS): Intelligent Object Search for Robotic Assistants
|speaker=Zhenhua
|date=2024-05-24}}
{{Hist_seminar
|confname=INFOCOM 2023
|link=https://xplorestaging.ieee.org/document/10229025
|title=RecMon: A Deep Learning-based Data Recovery System for Network Monitoring
|speaker=Zhenguo
|date=2024-05-24}}
{{Hist_seminar
|confname=IPSN 2023
|link=https://dl.acm.org/doi/10.1145/3583120.3586963
|title=FLoRa: Energy-Efficient, Reliable, and Beamforming-Assisted Over-The-Air Firmware Update in LoRa Networks
|speaker=Kai Chen
|date=2024-05-10}}
{{Hist_seminar
|confname=INFOCOM 2023
|link=https://ieeexplore.ieee.org/abstract/document/10228941/
|title=Prophet: An Efficient Feature Indexing Mechanism for Similarity Data Sharing at Network Edge
|speaker=Rong Cong
|date=2024-05-10}}
{{Hist_seminar
|confname=SIGCOMM 2020
|link=https://dl.acm.org/doi/10.1145/3387514.3405853
|title=Concurrent Entanglement Routing for Quantum Networks: Model and Designs
|speaker=Yaliang
|date=2024-04-28}}
{{Hist_seminar
|confname=MobiCom 2023
|link=https://dl.acm.org/doi/10.1145/3570361.3592523
|title=NeuriCam: Key-Frame Video Super-Resolution and Colorization for IoT Cameras
|speaker=Jiyi
|date=2024-04-12}}
{{Hist_seminar
|confname=Neurips 2017
|link=https://proceedings.neurips.cc/paper_files/paper/2017/file/3f5ee243547dee91fbd053c1c4a845aa-Paper.pdf
|title=Attention Is All You Need
|speaker=Qinyong
|date=2024-04-12}}
{{Hist_seminar
|confname=INFOCOM 2023
|link=https://ieeexplore.ieee.org/document/10229104
|title=Achieving Resilient and Performance-Guaranteed Routing in Space-Terrestrial Integrated Networks
|speaker=Luwei
|date=2024-03-29}}
{{Hist_seminar
|confname=INFOCOM 2023
|link=https://ieeexplore.ieee.org/document/10229043
|title=Communication-aware DNN pruning
|speaker=Shuhong
|date=2024-03-29}}
{{Hist_seminar
|confname=IROS 2021
|link=https://ieeexplore.ieee.org/abstract/document/9636344
|title=Scalable Reinforcement Learning Policies for Multi-Agent Control
|speaker=Xianyang
|date=2024-03-22}}
{{Hist_seminar
|confname=INFOCOM 2023
|link=https://ieeexplore.ieee.org/document/10228936/
|title=Breaking the Throughput Limit of LED-Camera Communication via Superposed Polarization
|speaker=Mengyu
|date=2024-03-22}}
{{Hist_seminar
|confname=MobiHoc '23
|link=https://dl.acm.org/doi/10.1145/3565287.3610254
|title=SRLoRa: Neural-enhanced LoRa Weak Signal Decoding with Multi-gateway Super Resolution
|speaker=Pengfei
|date=2024-01-18}}
{{Hist_seminar
|confname=TMC '23
|link=https://ieeexplore.ieee.org/document/9839387
|title=Integrated Sensing and Communication in UAV Swarms for Cooperative Multiple Targets Tracking
|speaker=Kun Wang
|date=2024-01-18}}
{{Hist_seminar
|confname=MobiCom '23
|link=https://dl.acm.org/doi/10.1145/3570361.3592496
|title=Towards Spatial Selection Transmission for Low-end IoT devices with SpotSound
|speaker=Jiajun
|date=2024-01-18}}
{{Hist_seminar
|confname=NSDI '23
|link=https://www.usenix.org/conference/nsdi23/presentation/padmanabhan
|title=Gemel: Model Merging for Memory-Efficient, Real-Time Video Analytics at the Edge
|speaker=Mengqi
|date=2024-01-18}}
{{Hist_seminar
|confname=MobiCom '23
|link=https://dl.acm.org/doi/10.1145/3570361.3592514
|title=Re-thinking computation offload for efficient inference on IoT devices with duty-cycled radios
|speaker=Yang Wang
|date=2024-01-11}}
{{Hist_seminar
|confname=INFOCOM '23
|link=https://ieeexplore.ieee.org/abstract/document/10228884
|title=DisProTrack: Distributed Provenance Tracking over Serverless Applications
|speaker=Xinyu
|date=2024-01-11}}
{{Hist_seminar
|confname=MobiSys '23
|link=https://dl.acm.org/doi/abs/10.1145/3581791.3596855
|title=When VLC Meets Under-Screen Camera
|speaker=Jiacheng
|date=2024-01-11}}
{{Hist_seminar
|confname=MobiCom '23
|link=https://dl.acm.org/doi/abs/10.1145/3570361.3592530
|title=MetaStream: Live Volumetric Content Capture, Creation, Delivery, and Rendering in Real Time
|speaker=Jiale
|date=2024-01-11}}
{{Hist_seminar
|confname=ToSN '23
|link=https://dl.acm.org/doi/10.1145/3571586
|title=Decoding LoRa Collisions via Parallel Alignment
|speaker=Kai Chen
|date=2024-01-04}}
{{Hist_seminar
|confname=MASS '23
|link=https://ieeexplore.ieee.org/abstract/document/10298524
|title=WiMix: A Lightweight Multimodal Human Activity Recognition System based on WiFi and Vision
|speaker=Haotian
|date=2024-01-04}}
{{Hist_seminar
|confname=TMC '23
|link=https://ieeexplore.ieee.org/document/9888056
|title=A Multicriteria-Based Forwarding Strategy for Interest Flooding Mitigation on Named Data Wireless Networking
|speaker=Zhenghua
|date=2024-01-04}}
====2023====
====2023====
{{Hist_seminar
|confname=SenSys' 22
|link=https://dl.acm.org/doi/pdf/10.1145/3560905.3568547
|title=LLDPC: A Low-Density Parity-Check Coding Scheme for LoRa Networks
|speaker=Wengliang
|date=2023-12-21}}
{{Hist_seminar
|confname=ToN' 22
|link=https://ieeexplore.ieee.org/document/9690589/
|title=Continuous Network Update With Consistency Guaranteed in Software-Defined Networks
|speaker=Yaliang
|date=2023-12-21}}
{{Hist_seminar
|confname=INFOCOM '23
|link=https://ieeexplore.ieee.org/document/10229105
|title=OmniSense: Towards Edge-Assisted Online Analytics for 360-Degree Videos
|speaker=Mengfan
|date=2023-12-21}}
{{Hist_seminar
|confname=SIGCOMM '23
|link=https://dl.acm.org/doi/abs/10.1145/3603269.3604849
|title=Network Load Balancing with In-network Reordering Support for RDMA
|speaker=Jiyi
|date=2023-12-21}}
{{Hist_seminar
|confname=TMC '22
|link=https://ieeexplore.ieee.org/abstract/document/10209220
|title=F3VeTrac: Enabling Fine-grained, Fully-road-covered, and Fully-individual penetrative Vehicle Trajectory Recovery
|speaker=Zhenguo
|date=2023-12-07}}
{{Hist_seminar
|confname=SIGCOMM '23
|link=https://dl.acm.org/doi/abs/10.1145/3603269.3604819
|title=ZGaming: Zero-Latency 3D Cloud Gaming by Image Prediction
|speaker=Wenjie
|date=2023-12-07}}
{{Hist_seminar
|confname=NeurIPS '20
|link=https://arxiv.org/abs/2010.13110
|title=Learning Multi-Agent Coordination for Enhancing Target Coverage in Directional Sensor Networks
|speaker=Jiahui
|date=2023-12-07}}
{{Hist_seminar
|confname=MobiCom '23
|link=https://dl.acm.org/doi/abs/10.1145/3570361.3592522
|title=CoreKube: An Efficient, Autoscaling and Resilient Mobile Core System
|speaker=Qinyong
|date=2023-12-07}}
{{Hist_seminar
|confname=TMC '20
|link=https://ieeexplore.ieee.org/document/8708935
|title=SmartVLC: Co-Designing Smart Lighting and Communication for Visible Light Networks
|speaker=Mengyu
|date=2023-11-16}}
{{Hist_seminar
|confname=TMC '23
|link=https://ieeexplore.ieee.org/document/9566795
|title=A Fast, Reliable, Opportunistic Broadcast Scheme With Mitigation of Internal Interference in VANETs
|speaker=Luwei
|date=2023-11-16}}
{{Hist_seminar
|confname=INFOCOM '23
|link=https://ieeexplore.ieee.org/document/10228990
|title=ResMap: Exploiting Sparse Residual Feature Map for Accelerating Cross-Edge Video Analytics
|speaker=Xianyang
|date=2023-11-16}}
{{Hist_seminar
|confname=NSDI '23
|link=https://www.usenix.org/conference/nsdi23/presentation/yu
|title=Following the Data, Not the Function: Rethinking Function Orchestration in Serverless Computing
|speaker=Mengfan
|date=2023-11-16}}
{{Hist_seminar
|confname=ASPLOS '23
|link=https://dl.acm.org/doi/10.1145/3582016.3582050
|title=LEGO: Empowering Chip-Level Functionality Plug-and-Play for Next-Generation IoT Devices
|speaker=Pengfei
|date=2023-11-09}}
{{Hist_seminar
|confname=IoTJ '23
|link=https://ieeexplore.ieee.org/document/9714482?denied=
|title=Hierarchical Aerial Computing for Internet of Things via Cooperation of HAPs and UAVs
|speaker=Kun Wang
|date=2023-11-09}}
{{Hist_seminar
|confname=INFOCOM '23
|link=https://ieeexplore.ieee.org/abstract/document/10229089
|title=Search in the Expanse: Towards Active and Global IPv6 Hitlists
|speaker=Xinyu
|date=2023-11-2}}
{{Hist_seminar
|confname=IPSN '23
|link=https://dl.acm.org/doi/10.1145/3583120.3586969
|title=Link Quality Modeling for LoRa Networks in Orchards
|speaker=Jiacheng
|date=2023-11-02}}
{{Hist_seminar
|confname=INFOCOM '23
|link=https://ieeexplore.ieee.org/document/10228896
|title=Rebuffering but not Suffering: Exploring Continuous-Time Quantitative QoE by User’s Exiting Behaviors
|speaker=Jiajun
|date=2023-11-02}}
{{Hist_seminar
|confname=SIGCOMM '23
|link=https://yuanmu97.github.io/preprint/packetgame_sigcomm23.pdf
|title=PacketGame: Multi-Stream Packet Gating for Concurrent Video Inference at Scale
|speaker=Shuhong
|date=2023-11-02}}
{{Hist_seminar
|confname=MobiCom '23
|link=https://dl.acm.org/doi/abs/10.1145/3570361.3613271
|title=Robust Real-time Multi-vehicle Collaboration on Asynchronous Sensors
|speaker=Yang Wang
|date=2023-10-26}}
{{Hist_seminar
|confname=SIGCOMM '23
|link=https://dl.acm.org/doi/abs/10.1145/3603269.3604816
|title=Ditto: Efficient Serverless Analytics with Elastic Parallelism
|speaker=Mengqi Ma
|date=2023-10-26}}
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===Instructions===
===Instructions===

Latest revision as of 21:47, 5 December 2024

History

2024

2023

2022

2021

2020

  • [Topic] [ The path planning algorithm for multiple mobile edge servers in EdgeGO], Rong Cong, 2020-11-18

2019

2018

2017

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