Byeongjin Kim

dblp:76/10852 · DBLP profile ↗
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5ranked-venue papers
1as first author
3since 2021 · last 2026
—ORCID · conflict

Domains — the database's venue-derived domains; a paper can count in several

Artificial intelligence and machine learning · 3 · 1 first-author · 2 since 2021Applied, interdisciplinary, general and emerging computing · 2 · 1 since 2021Systems, architecture and hardware · 1Databases, data management, data science and information retrieval · 1 · 1 since 2021Human-computer interaction and ubiquitous computing · 1

Expertise — from the expertise taxonomy: the topics of the expert's papers under the CCF categories. A weight counts papers with recency: 1 for a paper about the topic, 0.3 when the topic is its context, halved every five years.

Artificial intelligence
2 papers
Language models and text generation · 70% Planning, search and constraint satisfaction · 23% Graph learning · 7%
Databases, data mining, and information retrieval
1 paper
Knowledge graphs · 50% Recommender systems · 50%

Topics — the 6 heaviest of 7, each with the papers that count most for it

TopicWeightPapersLastEvidence papers
Natural language and speech › Language models and text generation › prompting › prompt engineering › prompt optimization
discrete prompt optimization
1.012026
Graph Discrete Prompt Optimization for Knowledge Graph Question Answering · WWW 2026
Natural language and speech › Language models and text generation › large language model reasoning
long-context reasoning
1.012026
PPA-Plan: Proactive Pitfall Avoidance for Reliable Planning in Long-Context LLM Reasoning · ACL (1) 2026
Natural language and speech › Language models and text generation › prompting
prompt engineering
1.012026
Graph Discrete Prompt Optimization for Knowledge Graph Question Answering · WWW 2026
Knowledge graphs › knowledge graph querying
knowledge graph question answering
1.012026
Graph Discrete Prompt Optimization for Knowledge Graph Question Answering · WWW 2026
Recommender systems
prompt tuning
1.012026
Graph Discrete Prompt Optimization for Knowledge Graph Question Answering · WWW 2026
Machine learning › Graph learning
graph representation learning
0.312026
Graph Discrete Prompt Optimization for Knowledge Graph Question Answering · WWW 2026

Methods — techniques the papers use, named apart from their topics

graph neural network · 2.0discrete prompt optimization · 2.0plan generation · 1.0negative constraints · 1.0
YearPublicationVenuePosition
2026 PPA-Plan: Proactive Pitfall Avoidance for Reliable Planning in Long-Context LLM Reasoning
abstract
Large language models struggle with reasoning over long contexts where relevant information is sparsely distributed.Although planand-execute frameworks mitigate this by decomposing tasks into planning and execution, their effectiveness is often limited by unreliable plan generation due to dependence on surfacelevel cues.Consequently, plans may be based on incorrect assumptions, and once a plan is formed, identifying errors and revising it reliably becomes difficult, limiting the effectiveness of reactive refinement.To address this limitation, we propose PPA-Plan, a proactive planning strategy for long-context reasoning that focuses on preventing such failures before plan generation.PPA-Plan identifies potential logical pitfalls and false assumptions, formulates them as negative constraints, and conditions plan generation on explicitly avoiding these constraints.Experiments on long-context QA benchmarks show that executing plans generated by PPA-Plan consistently outperforms existing plan-and-execute methods and direct prompting.Query: How many times did Burnett operate the claw in the passage?1. burnett_claw_operations = FIND_ELEMENT(CTX, "operate", "Burnett claw") 2. count_operations = COUNT_X(CTX, burnett_claw_operations) Answer: He directs the claw to retrieve Kriere from space.Then, he operates the claw to close around Kriere and crush him.So, the number of times Burnett operates the claw is 2. Query: Why was the murderer trying to kill Bo?⚠ Negative Constraints: -Assuming the motive for the murder is explicitly stated, rather than needing to infer it from context clues or character interactions.-Assuming that the murderer has a single, clear motive, overlooking the possibility of multiple, complex reasons for their actions.Plan ① FIND_RELATION ② FIND_ELEMENT ③ FIND_EVENT ④ CONCAT 1. murderer_relationship = FIND_RELATION(CTX,"murderer", "Bo") 2. motive_clues = FIND_ELEMENT(CTX, "motive clues", "murderer") 3. past_events = FIND_EVENT(CTX, "murderer") 4. combined_motive = CONCAT(murderer_relationship, motive_clues, past_events) Answer: …(details omitted).While the text does not provide explicit details about the murderer's motives, it suggests a broader context of violence and rivalry among individuals in the asteroid belt.Example (a) Planner Plan ① FIND_ELEMENT ② COUNT_X Executor Result 1 Result 2Query: Why was the murderer trying to kill Bo? 1. murderer_intent = FIND_INTENT(CTX, "murderer") 2. bo_relationship = FIND_RELATION(CTX, "Bo", "murderer") 3. motive = FIND_ELEMENT(CTX, "motive", "murderer") 4. ans = CONCAT(murderer_intent, bo_relationship, motive) Planner Executor
Byeongjin Kim, Gyuwan Kim, Seo Yeon Park
ACL (1)1
2026 Graph Discrete Prompt Optimization for Knowledge Graph Question Answering
Wooyoung Kim 0001, HaeMin Jung, Byeongjin Kim, Suhyeon Kwon, Wooju Kim
WWW3
2024 Korean Disaster Safety Information Sign Language Translation Benchmark Dataset
Wooyoung Kim 0001, Byeongjin Kim, Myeong Jin MJ Lee, Gitaek Lee, Kirok Kim, Jisoo Cha, Wooju Kim
LREC/COLING3
2020 Development of a Shared Indoor Smart Mobility Platform Based on Semi-Autonomous Driving
abstract
This paper details the development of a Shared Indoor Smart Mobility device called AngGo. As a precursor to the development process, we conducted user research on three kinds of outdoor personal mobility. Our goal was to determine the major differences between outdoor and indoor personal mobility and to ensure that AngGo would meet the requirements of indoor personal mobility in a practical way, as informed by the results of surveys and interviews. Tests were conducted on the time-of-flight sensors to be used for indoor autonomous driving. Manual mode as well as the experiment-based equations governing the sensors were optimized through user testing. Our observational experiments, which were carried out in the lobby of a building, showed that both autonomous and manual modes functioned as designed. This study makes a contribution to the literature by describing how our AngGo device features an autonomous driving platform that can transport riders around an indoor environment.
Haeun Park, Yoonjoung Kwak, Byeongjin Kim, Seong-Beom Kim, Seongjae Lee, Byounghern Kim, Hui Sung Lee
RO-MAN4
2008 An Efficient Secure Scan Design for an SoC Embedding AES Core
abstract
This poster presents an efficient secure scan design based on a fake key to protect a secret key from scan-based side channel attack. This technique targeted for an SoC embedding an Advanced Encryption Standard (AES) core can be adopted without requiring any modification to the functional body of the IP core, thus overheads for area, timing, and power are negligible while preserving the compatibility with the IEEE1149.1 standard.
Jaehoon Song, Taejin Jung, Junseop Lee, Hyeran Jeong, Byeongjin Kim, Sungju Park
ITC5