Theses and Projects: Difference between revisions
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* (P) Student project | * (P) Student project | ||
=== * '''New!''' Task Offloading and Resource Allocation Optimization=== | |||
With the continuous advancement of the next-generation wireless communication technologies and the population of mobile devices, a variety of Internet of Things (IoT) applications are emerging and seeking efficient task execution paradigms. This topic presents efficient joint task offloading and auction-based resource allocation mechanisms in edge computing, which not only expand the computational capabilities of mobile devices but also enhance the Quality of Service of IoT applications by significantly reducing latency. We expect you have a background in edge computing, optimization algorithms, and programming skills. | |||
Please contact Dongkuo Wu [dongkuo.wu@cs.uni-goettingen.de] | |||
=== * '''New!''' Efficient Live Volumetric Video Streaming System=== | === * '''New!''' Efficient Live Volumetric Video Streaming System=== | ||
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Please contact Yanlong Huang[yanlong.huang@cs.uni-goettingen.de] | Please contact Yanlong Huang[yanlong.huang@cs.uni-goettingen.de] | ||
=== * '''New!''' | === * '''New!''' Using LLM for Sign Language Translation (B/M/P)=== | ||
Sign language is the primary means of communication for the deaf and hard-of-hearing community, yet most people do not understand it. This topic explores the integration of Large Language Models (LLMs) with computer vision to build an advanced sign language translation system - with special focus on overcoming the critical challenge of understanding long, continuous sign language videos. We welcome students passionate about Natural Language Processing (NLP) and Computer Vision (CV) to explore the cutting edge of sign language translation technology. | |||
Please contact | Please contact Wenfang Wu [wenfang.wu@cs.uni-goettingen.de] | ||
=== * '''New!''' Using LLM for Sentiment Knowledge Graph Construction (B/M/P)=== | === * '''New!''' Using LLM for Sentiment Knowledge Graph Construction (B/M/P)=== | ||
Constructing a sentiment knowledge graph using Large Language Models (LLMs) like ChatGPT involves leveraging the model's capabilities to understand and analyze textual data, extract entities and relationships, perform sentiment analysis, and organize the information into a graph structure | Constructing a sentiment knowledge graph using Large Language Models (LLMs) like ChatGPT involves leveraging the model's capabilities to understand and analyze textual data, extract entities and relationships, perform sentiment analysis, and organize the information into a graph structure. We expect you have a background in knowledge graph and programming skills in Python. | ||
Please contact Wenfang Wu [wenfang.wu@cs.uni-goettingen.de] | Please contact Wenfang Wu [wenfang.wu@cs.uni-goettingen.de] | ||
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Please contact Tong Shen [shen.tong@cs.uni-goettingen.de] | Please contact Tong Shen [shen.tong@cs.uni-goettingen.de] | ||
=== * '''New!''' Emotional Support Conversation Generation based on LLM (B/M/P)=== | === * '''New!''' Emotional Support Conversation Generation based on LLM (B/M/P)=== | ||
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Please contact Jing Li [jing.li@cs.uni-goettingen.de] | Please contact Jing Li [jing.li@cs.uni-goettingen.de] | ||
=== | === * '''New!''' Rumor control and detection method for social networks based on GCN=== | ||
In social networks, rumors spread quickly and have a wide impact. Through GCN, the complex relationships between nodes in the network can be effectively captured, and the detection and propagation paths of rumors can be modeled and controlled. The core of this method is to improve the ability to identify and control the spread of rumors by jointly learning user behavior, information content, and network topology by building an information propagation graph. We need students in this topic. We expect you have a background in rumor detection and programming skills in Python. | |||
Please contact Fei Gao [fei.gao@cs.uni-goettingen.de] | |||
=== * 3D natural hazard simulator === | === * 3D natural hazard simulator === | ||
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Please contact Dr. Tingting Yuan [tingting.yuan@cs.uni-goettingen.de]] (B/M/P) | Please contact Dr. Tingting Yuan [tingting.yuan@cs.uni-goettingen.de]] (B/M/P) | ||
=== * | === * '''[Closed]''' Privacy-preserved Video Analytics=== | ||
This project/thesis topic focuses on the protection of privacy in video analytics. | This project/thesis topic focuses on the protection of privacy in video analytics. | ||
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[1] Pecam: privacy-enhanced video streaming and analytics via securely-reversible transformation [https://dl.acm.org/doi/abs/10.1145/3447993.3448618]. | [1] Pecam: privacy-enhanced video streaming and analytics via securely-reversible transformation [https://dl.acm.org/doi/abs/10.1145/3447993.3448618]. | ||
=== * | === * '''[Closed]''' AI for networking adaption === | ||
In this project/theses topic, you will explore how to make AI meets networking requirements (e.g., fluctuating network states). | In this project/theses topic, you will explore how to make AI meets networking requirements (e.g., fluctuating network states). | ||
You will (1) deploy and test Genet[1]; (2)extend the Genet environment to multi-client environment (e.g., ABR); (3) deploy multi-agent algorithms on Genet and valid the performance. | You will (1) deploy and test Genet[1]; (2)extend the Genet environment to multi-client environment (e.g., ABR); (3) deploy multi-agent algorithms on Genet and valid the performance. | ||