Human-Centred Design Meets AI-Driven Algorithms: Comparative Analysis of Political Campaign Branding in the Harris–Trump Presidential Campaigns
Abstract
:1. Introduction
RQ: How can integrating AI-driven predictive models and creative insights improve political campaign designs by enhancing viewer attention, emotional engagement, and information retention?
1.1. Background and Hypotheses
1.1.1. A Review of Relevant Literature
1.1.2. Theoretical Framework
- Y represents the dependent variable (e.g., attitudes towards AI usage).
- β0 is the intercept.
- β1, β2, …, βn are the coefficients for each independent variable (e.g., perceived usefulness, AI mindset).
- X1, X2,…, Xn are the independent variables.
- ϵ is the error term.
- Predictors of AI usage: In the context of this study, perceived usefulness (β = 0.34) and AI mindset growth (β = 0.28) are significant predictors of attitudes towards AI usage [51].
- Perceived ease of use: The extent voters find AI-generated campaign materials easy to understand and engage with. The ease with which campaign designers can integrate AI tools into their strategies affects their willingness to adopt these technologies. Simplified interfaces and user-friendly AI tools contribute to higher acceptance [53,54].
- Behavioural intention: Voters’ likelihood of engaging with and being influenced by AI-generated campaign materials. The intention to use AI is influenced by the perceived usefulness, ease of use, and social influence. A positive behavioural intention towards AI adoption can lead to more widespread use in campaign design [55].
2. Research Design
2.1. Novelty of the Approach
2.1.1. AI-Powered Eye-Tracking Software
2.1.2. CoPilot: A Neuroscience-Based AI Marketing Assistant
3. Materials and Methods
Statistical Analysis: ANOVA and Bonferroni Post-Hoc Test Results
4. Results
4.1. Comparative Analysis of Attention Scores Across Design Variations
4.1.1. Text-Based AOIs
4.1.2. Visual AOIs
4.1.3. Peripheral AOIs
4.1.4. High-Impact AOIs
4.1.5. Overall Trends
4.1.6. Implications
4.2. Weighted Performance Analysis: Comparing AI-Enhanced and Human-Influenced Designs
4.3. Comparison of Clarity Scores Across Four Flyer Designs Using Kruskal–Wallis H-Test
- -
- AOI 1 (Main Headline on Top): (7.03 × 100);
- -
- AOI 2 (Body Text on Top): (6.13 × 100);
- -
- AOI 5 (Kamala Name): (2.56 × 100).
- -
- AOI 4 (Kamala Figure): (1.077 × 101) (highest among all designs);
- -
- AOI 5 (Kamala Name): (2.66 × 100).
- -
- AOI 10 (Venue Text): (1.193 × 101) (the highest clarity score for this AOI).
- -
- AOI 3 (Trump Figure): (1.015 × 101);
- -
- AOI 4 (Kamala Figure): (9.67 × 100).
4.4. A Spearman Correlation Analysis of the Relationship Between Clarity and Cognitive Demand
5. Discussion
- Design 1 was associated with a significantly higher attention score [8.7 × 100] compared to Design 2 [6.2 × 100] and Design 3 [7.5 × 100].
- Key elements in Design 1 were associated with longer fixation times, averaging [2.3 × 100] seconds more than other designs.
- Design 1 was associated with a [3.5 × 10⁻1] higher recall rate of key information.
- Human expertise and intuition: Design 1, created by a human designer, likely benefited from years of experience and an intuitive understanding of human perception and emotional responses, allowing for more nuanced design choices.
- Contextual understanding: Human designers may possess a better grasp of cultural, social, and political contexts, enabling the creation of more relevant and emotionally engaging content.
- Emotional intelligence: Human designers can tap into emotional intelligence to create designs that evoke specific feelings or responses, while AI systems may struggle to capture and replicate human emotions’ complexities fully.
- Cognitive load management: The human-designed flyer may have more effectively balanced information density and visual complexity, reducing cognitive load for viewers.
- Familiarity and trust: Viewers may respond more positively to designs that feel familiar and “human-made”, potentially leading to higher engagement with Design 1.
- Integration of AI insights: Design 1 incorporated AI-assisted eye-tracking analysis, suggesting that human designers effectively combined AI-generated insights with their creativity.
- Limitations of current AI systems: AI may still lack the ability to fully replicate human creativity, especially in areas requiring subjective judgment or cultural sensitivity.
6. Study Contribution
7. Future Recommendation
- Investigate long-term effects: Conduct longitudinal studies to assess the sustained impact of hybrid neuroscience AI–human designs on user engagement and information retention over extended periods.
- Explore diverse design contexts: Expand research to various design fields (e.g., web design, product packaging, and advertising) to determine if the superiority of hybrid approaches is consistent across different domains. In advertising, hybrid approaches incorporating diverse and inclusive elements have yielded positive outcomes for both brands and society. This finding suggests that the integration of various diversity attributes within advertising strategies enhances their overall efficacy [137].
- Analyse the decision-making process: Examine how human designers interpret and apply neuroscience AI-generated insights, potentially leading to the development of more effective neuroscience AI–human collaboration frameworks.
- Optimize eye-tracking and AI-LLM to human integration: Investigate methods to streamline the integration of AI neuroscience insights into human design workflows, enhancing efficiency and effectiveness.
- Compare multiple neuroscience AI technologies: Evaluate the performance of different AI technologies (e.g., computer vision and natural language processing) combined with human expertise to identify the most potent synergies.
- Assess cultural variations: Study how cultural differences may influence the effectiveness of hybrid neuroscience AI–human designs, potentially leading to culturally tailored design strategies. Deep learning models that account for cultural variations in emotional processing can provide significant insights for developing AI systems that effectively align with diverse cultural and emotional frameworks. These models have the potential to facilitate the creation of more culturally sensitive and emotionally attuned AI applications, thereby ensuring that interactions are more congruent with the emotional cues and expectations of different cultural groups [138].
- Investigate ethical implications: Explore the ethical considerations of using AI neuroscience insights in design, particularly in persuasive or marketing contexts. Public perception of ethical AI design is crucial in determining the acceptance and trust in AI systems. While ethical principles such as explainability, fairness, and privacy are generally considered equally important, preferences for these values may vary across diverse demographic groups [139].
- Refine neuroscience AI algorithms: Continuously improve AI algorithms based on successful human interpretations and applications of AI-generated insights.
- Conduct interdisciplinary research: Foster collaboration between neuroscientists, AI researchers, and design professionals to drive innovation in hybrid design approaches.
- 10.
- Future research directions: future research should consider longitudinal designs to validate causal relationships between AI-enhanced designs and viewer engagement. Such studies could track changes in engagement over time as designs are modified, providing more substantial evidence for causal effects.
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
Abbreviations
OBC | Oxford Business College |
PREDICT | AI eye-tracking software for predicting human behaviour |
COPILOT | AI neuroscience LLM software AI/AI Eye tracking—Predict AI LLM—Copilot |
CD | cognitive demand |
AOI | area of interest |
LLM | large language model |
SBCs | subtle backdrop cues—minor, often unnoticed, environmental or contextual elements in a scene or interaction that subtly influence perception, behaviour, or decision-making. |
JND-SalCAR | Just Noticeable Difference-Saliency and Contrast Attention Regulation model—a theoretical framework utilised to elucidate the mechanisms by which saliency (the prominence or attention-capturing quality) and contrast in visual stimuli influence human attention and perception. |
AUPOD | An automated, data-driven model designed to optimise decision-making and design processes through a systematic approach. |
PYKOGNITION | An artificial intelligence-based Python library designed for cognitive task analysis and eye-tracking applications. |
UMSI | A framework designed to integrate two key concepts in visual perception: saliency and importance. |
A/B | A methodology for comparing two variants of a variable (Version A and Version B) to ascertain which one exhibits superior performance based on a specified metric or objective. |
Appendix A
Remark | Objective |
---|---|
Enlarge and centre the debate headline with a dynamic font to create a more vital focal point. | Improve attention distribution and enhance the clarity of the main message. |
Replace static participant images with action-oriented debate poses. | Boost engagement through added visual energy and emotional resonance. |
Create a compact, infographic-style element for debate details. | Reduce cognitive demand and improve the clarity of information presentation. |
Introduce a subtle patriotic background element. | Enhance visual interest and reinforce brand identity without increasing cognitive load. |
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Hypothesis | Description |
---|---|
H1a: Attention Capture | Political campaign flyers designed using Predict AI’s Co-Pilot will achieve higher initial attention scores (start attention) than traditionally designed flyers. |
H1b: Emotional Engagement | Political campaign flyers designed with Predict AI’s Co-Pilot will elicit stronger emotional engagement, measured by higher end attention and lower cognitive demand scores. |
H1c: Message Clarity | Political campaign flyers created using Predict AI’s Co-Pilot will have higher clarity scores than those designed using traditional methods, ensuring better comprehension of campaign messages. |
H1d: Viewer Engagement and Recall | Political campaign flyers designed with Predict AI’s Co-Pilot will result in higher viewer engagement, recall, and recognition scores than traditionally designed flyers. |
Design Version | Key Modifications | Design Objectives | Designer |
---|---|---|---|
Design 0 (Original Flyer) | No design changes; kept original as published by Al Jazeera. | Baseline comparison for evaluating improvements. | Not Applicable (Source: Al Jazeera) |
Design 1 | Enlarged candidate names and party text with bold font, colour-matched text to the election logo, added a secondary background logo behind candidate figures, slightly enlarged figures for greater emphasis, lightened the main headline background from dark to light for improved readability, and reduced body text size to focus viewer attention on primary content. The election logo’s position is positioned to its original placement for a familiar visual structure. | Increase the visibility of key details, emphasise candidate prominence, and create a cleaner, more visually compelling layout. | Professional Graphic Designer |
Design 2 | Retained changes from Design 1, including bold candidate names and text alignment. Further improvements involved adjusting background contrast, repositioning the US Elections logo for increased prominence, refining text hierarchy, balancing figure prominence, and removing official party icons. | Create balance, strengthen party association awareness, improve readability, and maintain familiar visual structure. | Professional Graphic Designer |
Design 3 | Incorporated recommendations from CoPilot; replaced static figures with dynamic debate poses, adjusted background contrast; repositioned key elements for better hierarchy, emphasised key headlines with bold text, improved logo visibility, applied colour-coded emphasis on political affiliations; and used action-oriented visuals with a subtle patriotic background. A prominent election logo was added to the background behind candidates to draw attention and subconsciously enhance the design. Official party icons (donkey for Democrats, elephant for Republicans) were added near candidates’ names to attract subliminal attention to each party and its respective candidate. The election logo’s position was restored to its original placement for a familiar visual structure. | Boost emotional engagement, highlight action dynamics, and improve message clarity through visual storytelling. | Professional Graphic Designer (based on AI CoPilot Recommendations) |
AOI ID | AOI Name | Functional Description |
---|---|---|
1 | Main Headline on Top (Main Headline) | Primary attention grabber conveys key info |
2 | Body Text on Top (Body Text) | Supporting text for event context |
3 | Trump Figure (Candidate Image: Trump) | Candidate representation (visual anchor) |
4 | Kamala Figure (Candidate Image: Kamala) | Candidate representation (visual anchor) |
5 | Kamala Name (Name Tag: Kamala) | Identifies candidate (text label) |
6 | Trump Name (Name Tag: Trump) | Identifies candidate (text label) |
7 | Democratic Party Name (Party Label: Democratic) | Displays political affiliation (Kamala) |
8 | Republican Party Name (Party Label: Republican) | Displays political affiliation (Trump) |
9 | US Elections Logo (Election Logo) | Central campaign event branding |
10 | Venue Text (Event Venue) | Provides event location |
11 | Election and Venue Dates (Event Date) | Displays event timeline and deadlines |
12 | Source (Source Reference) | Source reference for credibility |
13 | Al Jazeera Logo (Media Logo) | Media attribution for journalistic integrity |
Metric | F-Statistic | p-Value | Significance |
---|---|---|---|
Clarity | 0.20 | 0.8989 | Not Significant |
Engagement | 0.01 | 0.9985 | Not Significant |
Total Attention | 0.04 | 0.9884 | Not Significant |
Group 1 | Group 2 | Mean Difference | p-Value | Significance |
---|---|---|---|---|
Clarity_Design_0 | Clarity_Design_1 | −0.97 | 0.8724 | No |
Clarity_Design_0 | Clarity_Design_2 | −0.37 | 0.9915 | No |
Clarity_Design_0 | Clarity_Design_3 | −0.45 | 0.9849 | No |
Clarity_Design_1 | Clarity_Design_2 | 0.60 | 0.9653 | No |
Clarity_Design_1 | Clarity_Design_3 | 0.52 | 0.9769 | No |
Clarity_Design_2 | Clarity_Design_3 | −0.08 | 0.9999 | No |
Group 1 | Group 2 | Mean Difference | p-Value | Significance |
---|---|---|---|---|
Engagement_Design_0 | Engagement_Design_1 | 0.16 | 0.9988 | No |
Engagement_Design_0 | Engagement_Design_2 | 0.05 | 0.9999 | No |
Engagement_Design_0 | Engagement_Design_3 | −0.01 | 1.0000 | No |
Engagement_Design_1 | Engagement_Design_2 | −0.10 | 0.9997 | No |
Engagement_Design_1 | Engagement_Design_3 | −0.17 | 0.9985 | No |
Engagement_Design_2 | Engagement_Design_3 | −0.06 | 0.9999 | No |
Group 1 | Group 2 | Mean Difference | p-Value | Significance |
---|---|---|---|---|
TotalAttention_Design_0 | TotalAttention_Design_1 | −0.39 | 0.9992 | No |
TotalAttention_Design_0 | TotalAttention_Design_2 | 0.56 | 0.9977 | No |
TotalAttention_Design_0 | TotalAttention_Design_3 | 0.45 | 0.9988 | No |
TotalAttention_Design_1 | TotalAttention_Design_2 | 0.96 | 0.9891 | No |
TotalAttention_Design_1 | TotalAttention_Design_3 | 0.85 | 0.9923 | No |
TotalAttention_Design_2 | TotalAttention_Design_3 | −0.10 | 1.0000 | No |
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© 2025 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
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Šola, H.M.; Qureshi, F.H.; Khawaja, S. Human-Centred Design Meets AI-Driven Algorithms: Comparative Analysis of Political Campaign Branding in the Harris–Trump Presidential Campaigns. Informatics 2025, 12, 30. https://doi.org/10.3390/informatics12010030
Šola HM, Qureshi FH, Khawaja S. Human-Centred Design Meets AI-Driven Algorithms: Comparative Analysis of Political Campaign Branding in the Harris–Trump Presidential Campaigns. Informatics. 2025; 12(1):30. https://doi.org/10.3390/informatics12010030
Chicago/Turabian StyleŠola, Hedda Martina, Fayyaz Hussain Qureshi, and Sarwar Khawaja. 2025. "Human-Centred Design Meets AI-Driven Algorithms: Comparative Analysis of Political Campaign Branding in the Harris–Trump Presidential Campaigns" Informatics 12, no. 1: 30. https://doi.org/10.3390/informatics12010030
APA StyleŠola, H. M., Qureshi, F. H., & Khawaja, S. (2025). Human-Centred Design Meets AI-Driven Algorithms: Comparative Analysis of Political Campaign Branding in the Harris–Trump Presidential Campaigns. Informatics, 12(1), 30. https://doi.org/10.3390/informatics12010030