Nitin Agarwal
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Nitin Agarwal has a total of 153 co-authors. Here are the top co-authors by number of shared publications:
- Mustafa Alassad
COSMOS Research Center, UA - Little Rock, Little Rock, USA
21 shared publications - Mert Can Cakmak
University of Arkansas - Little Rock
17 shared publications - Samer Al-Khateeb
Creighton University
14 shared publications - Diwash Poudel
COSMOS Research Center University of Arkansas Little Rock USA
13 shared publications - Ridwan Amure
COSMOS Research Center, UALR, Little Rock, USA
13 shared publications Huan Liu
Arizona State University
11 shared publications
Latest Publications
- 12 November 2026
- Published by Springer Nature
- p. 1-12
Focal Structures in Social Networks
- Open Access
- 10 November 2026
- Published by Springer Nature in Social Network Analysis and Mining
Identifying content traps in recommendation networks: comparison between regular and collective influence-based focal structure analysis
Content traps are structurally cohesive regions in recommendation networks characterized by high attraction and retention. This study compares two methods for identifying such structures, Focal Structure Analysis (FSA) and Collective Influence-Focal Structure Analysis (CI-FSA), to determine which better detects structurally critical content traps in YouTube recommendation networks. We construct recommendation graphs from two discourse domains (2025 U.S. tariff expansion and 2024 Taiwan presidential election), apply both methods to extract focal sets, and evaluate them using trap-intensity scores (measuring attraction and retention), structural properties (size, centrality, clustering, participation coefficient), and network resiliency metrics (connectivity loss, fragmentation). CI-FSA identifies focal sets with 14-fold lower median size than FSA, while exhibiting substantially greater structural impact: 24% higher average trap intensity, 11-fold higher median eigenvector centrality, and twice the connectivity loss per removed node. Structural analysis reveals that CI-FSA selects nodes that bridge multiple communities, whereas FSA extracts larger, community-embedded regions with lower criticality. These findings suggest that small, propagation-critical bottlenecks play an important role in the structural organization of content traps, and that CI-FSA identifies such regions more effectively than FSA. For platform design, these findings suggest that targeted interventions on approximately 20-node structural bottlenecks may be more efficient in disrupting network connectivity than interventions on larger, approximately 300-node community structures.
- 10 November 2026
- Published by Springer Nature in Social Network Analysis and Mining
Open AccessIdentifying content traps in recommendation networks: comparison between regular and collective influence-based focal structure analysis
Content traps are structurally cohesive regions in recommendation networks characterized by high attraction and retention. This study compares two methods for identifying such structures, Focal Structure Analysis (FSA) and Collective Influence-Focal Structure Analysis (CI-FSA), to determine which better detects structurally critical content traps in YouTube recommendation networks. We construct recommendation graphs from two discourse domains (2025 U.S. tariff expansion and 2024 Taiwan presidential election), apply both methods to extract focal sets, and evaluate them using trap-intensity scores (measuring attraction and retention), structural properties (size, centrality, clustering, participation coefficient), and network resiliency metrics (connectivity loss, fragmentation). CI-FSA identifies focal sets with 14-fold lower median size than FSA, while exhibiting substantially greater structural impact: 24% higher average trap intensity, 11-fold higher median eigenvector centrality, and twice the connectivity loss per removed node. Structural analysis reveals that CI-FSA selects nodes that bridge multiple communities, whereas FSA extracts larger, community-embedded regions with lower criticality. These findings suggest that small, propagation-critical bottlenecks play an important role in the structural organization of content traps, and that CI-FSA identifies such regions more effectively than FSA. For platform design, these findings suggest that targeted interventions on approximately 20-node structural bottlenecks may be more efficient in disrupting network connectivity than interventions on larger, approximately 300-node community structures.
- 16 October 2026
- Published by Springer Nature
- p. 1-15
Mobs
- 11 October 2026
- Published by Springer Nature
- p. 1-11
Sentiment-Aware Recommender Systems: Techniques, Challenges, and Social Implications
- 11 October 2026
- Published by Springer Nature
- p. 1-11
Sentiment-Aware Recommender Systems: Techniques, Challenges, and Social Implications
- 9 October 2026
- Published by Springer Nature
- p. 219-229
Symbols of Dissent: How Visual Symbolism Shapes Engagement and Emotions in Nepal’s 2025 Anti-corruption Movement
- 9 October 2026
- Published by Springer Nature
- p. 219-229
Symbols of Dissent: How Visual Symbolism Shapes Engagement and Emotions in Nepal’s 2025 Anti-corruption Movement
- 9 October 2026
- Published by Springer Nature
- p. 241-250
Campaign-Level Behavioral Archetypes Transfer Across Political Campaigns
- 9 October 2026
- Published by Springer Nature
- p. 241-250
Campaign-Level Behavioral Archetypes Transfer Across Political Campaigns
- 9 October 2026
- Published by Springer Nature
- p. 230-240
Role of Symbolic Configurations in Competing Narrative Diffusion on YouTube During the 2025 Indonesia Protests
- 9 October 2026
- Published by Springer Nature
- p. 230-240
Role of Symbolic Configurations in Competing Narrative Diffusion on YouTube During the 2025 Indonesia Protests
- Open Access
- 6 May 2026
- Published by Springer Nature in Social Network Analysis and Mining
Modeling cross-platform narrative diffusion: a stable Hawkes–ODE framework for exposure and adoption dynamics
Understanding how narratives spread across social media platforms requires a framework that captures both the stochastic generation of posts and the gradual evolution of user engagement. This study proposes a cross-platform diffusion model that integrates a marked multivariate Hawkes process with a bounded exposure–adoption ordinary differential equation (ODE). The Hawkes component models event arrivals and cross-platform excitation, while the ODE captures how exposure translates into active engagement over time. Applied to the 2025 U.S. tariff-war discourse spanning 30,493 Instagram, 11,218 TikTok, 12,252 X, and 30,493 YouTube posts collected between January and May 2025, the model reveals interpretable and stable cross-platform influence dynamics. The estimated branching matrix ( $$\rho (B) = 0.523$$ ) lies well below the critical threshold ( $$\rho (B) = 1$$ ), indicating a stable, self-damped diffusion regime in which cross-platform cascades persist but do not explode, with dominant pathways from short-form and real-time platforms toward long-form commentary channels. The exposure–adoption ODE was validated through a forward-prediction experiment, training on a percentage of each trajectory and evaluating on the future, demonstrating accurate extrapolation of engagement trends and confirming the model’s predictive coherence. Together, these results demonstrate that the proposed framework provides a mathematically grounded and interpretable lens for analyzing how narratives emerge, propagate, and stabilize across interconnected media ecosystems.- 6 May 2026
- Published by Springer Nature in Social Network Analysis and Mining
Open AccessModeling cross-platform narrative diffusion: a stable Hawkes–ODE framework for exposure and adoption dynamics
Understanding how narratives spread across social media platforms requires a framework that captures both the stochastic generation of posts and the gradual evolution of user engagement. This study proposes a cross-platform diffusion model that integrates a marked multivariate Hawkes process with a bounded exposure–adoption ordinary differential equation (ODE). The Hawkes component models event arrivals and cross-platform excitation, while the ODE captures how exposure translates into active engagement over time. Applied to the 2025 U.S. tariff-war discourse spanning 30,493 Instagram, 11,218 TikTok, 12,252 X, and 30,493 YouTube posts collected between January and May 2025, the model reveals interpretable and stable cross-platform influence dynamics. The estimated branching matrix ( $$\rho (B) = 0.523$$ ) lies well below the critical threshold ( $$\rho (B) = 1$$ ), indicating a stable, self-damped diffusion regime in which cross-platform cascades persist but do not explode, with dominant pathways from short-form and real-time platforms toward long-form commentary channels. The exposure–adoption ODE was validated through a forward-prediction experiment, training on a percentage of each trajectory and evaluating on the future, demonstrating accurate extrapolation of engagement trends and confirming the model’s predictive coherence. Together, these results demonstrate that the proposed framework provides a mathematically grounded and interpretable lens for analyzing how narratives emerge, propagate, and stabilize across interconnected media ecosystems. - 1 May 2026
- Published by Springer Nature
- p. 78-90
Uncovering Channel-Level Behaviors via Multimodal Characterization in YouTube Content
- 1 May 2026
- Published by Springer Nature
- p. 78-90
Uncovering Channel-Level Behaviors via Multimodal Characterization in YouTube Content
- 1 May 2026
- Published by Springer Nature
- p. 66-77
Characterizing YouTube Channels Through Semantic Consistency Across Content Features
- 1 May 2026
- Published by Springer Nature
- p. 66-77
Characterizing YouTube Channels Through Semantic Consistency Across Content Features