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Olive trees (Olea europaea) are more than just Mediterranean icons—they provide valuable oil, thrive under changing climates, and support both culture and economy. Their wild relatives, like Oleaster (Olea sylvestris), offer even richer nutritional value and play a key role in biodiversity, reforestation, and breeding stress-resistant varieties. Yet, growing olives—especially wild types—isn’t easy. Traditional propagation is slow and labor-intensive, while in vitro micropropagation, though faster, faces its own hurdles: apical dominance, where the main shoot outcompetes side shoots, and culture heterogeneity, which creates uneven plant growth. A recent study published in MDPI Plants, “Exploring the Interplay of Explant Origin and Culture Density on Olive Micropropagation Efficiency", tackled these challenges. The researchers examined how the source of plant tissue (topophysis) and the density of explants in culture affect both growth and hormone distribution in vitro. 1. Challenges in Olive Micropropagation One of the primary obstacles in olive micropropagation is apical dominance, a physiological phenomenon in which the main shoot inhibits the growth of lateral buds, resulting in uneven shoot proliferation. Strong apical dominance reduces the multiplication factor in vitro and contributes to variability within cultures. Another limiting factor is culture heterogeneity, where differences in growth and development arise among plantlets within the same vessel, often affecting the uniformity and quality of the propagated material. While apical meristem excision has been attempted to reduce apical dominance, it does not consistently improve shoot proliferation. Alternatively, the exogenous application of cytokinins (CKs)—plant hormones that regulate cell division and shoot initiation—has shown promise in stimulating axillary bud growth even in the presence of an intact apex. Various cytokinins, including zeatin (Z), benzyladenine (BA), kinetin (Kn), thidiazuron (TDZ), and meta-topolin (mT), have been tested, with zeatin proving particularly effective across diverse olive cultivars. CK-like substances such as dikegulac have also been explored for their potential to modulate shoot proliferation. Cytokinins play a central role in in vitro propagation. As adenine derivatives, they are classified into isoprenoid and aromatic types, regulating shoot meristem initiation, proliferation, apical dominance, senescence, rooting, and callus formation. Their activity depends on chemical form: free bases are active, ribosylation converts them into transportable but less active forms, O-glucosylation provides reversible deactivation, and N-glucosylation results in irreversible inactivation. Cytokinin levels are influenced by both environmental and endogenous factors, including light, nutrient availability, and stress conditions. In olive micropropagation, cytokinins in the culture medium are critical, alongside mineral nutrients, for inducing shoot proliferation and maintaining healthy growth. 2. Explant Origin (Topophysis) and Its Role Another critical factor affecting olive micropropagation is topophysis, which refers to the effect of the original tissue’s position on subsequent growth and development. First described by Molisch in 1915 and later elaborated by Robbins in 1964, topophysis has traditionally been studied regarding rooting capacity in vivo, while its influence in vitro has been less explored. In woody species like olives, the positional effect of explants can significantly affect growth patterns, shoot proliferation, and cytokinin responsiveness. Understanding and manipulating topophysis is therefore key to optimizing in vitro propagation protocols. 3. Study Design and Hypothesis This study aimed to examine the combined effects of explant origin and culture density on olive micropropagation efficiency. The authors hypothesized that selecting explants from specific positions and adjusting culture density would influence cytokinin metabolism and spatial distribution, ultimately enhancing shoot proliferation and mitigating the inhibitory effects of apical dominance. To test this hypothesis, explants were collected from two positions on the olive shoot: the apical section, representing the very tip of the shoot, and the middle section. Explants were cultured at three densities: 18, 24, and 30 explants per vessel. Growth parameters, including shoot number, node number, internode length, and callus weight, were measured after 12 weeks. In parallel, a detailed analysis of the spatial distribution of aromatic and isoprenoid cytokinins in leaves and stems was conducted to assess the hormonal dynamics underlying growth responses. 4. Key Morphological Findings The results demonstrated that both explant origin and culture density significantly influenced growth outcomes: Shoot Proliferation and Node Production: Middle-section explants consistently exhibited superior shoot proliferation and a higher number of nodes compared to apical explants. This effect was most pronounced at higher culture densities. Although apical-section explants also showed improved growth at increased densities, the magnitude was smaller, indicating a residual effect of apical dominance. Callus Formation: Callus weight increased with culture density for both explant types, reflecting enhanced regenerative capacity under crowded conditions. Internode Length: Across explant origins and culture densities, internode length remained relatively stable, suggesting that node spacing is less sensitive to explant position and density than shoot number or callus formation. These findings highlight the importance of topophysis and culture density as practical levers for optimizing micropropagation efficiency. Selecting middle-section explants and growing them at higher densities allows researchers to maximize shoot multiplication and generate more homogeneous cultures. 5. Hormonal Insights Cytokinin analysis revealed density-dependent and position-specific patterns in hormone distribution: Aromatic Cytokinins: In apical-section explants, aromatic free bases in leaves migrated toward shoot apices at higher culture densities. This migration was less pronounced in middle-section explants, potentially explaining their more uniform shoot proliferation. Isoprenoid Cytokinins: Free bases and O-glucosides generally increased toward basal nodes, indicating complex spatial regulation. These patterns suggest that cytokinins contribute to mitigating apical dominance when explants are strategically selected and cultured at higher densities. By linking hormone distribution to observed growth parameters, the study provides mechanistic insights into how explant origin and culture density interact to regulate shoot proliferation and culture uniformity. 6. Implications and Applications This research carries both practical and scientific implications: Commercial Production: Olive growers can improve the efficiency and consistency of in vitro propagation by selecting middle-section explants and optimizing culture density, thereby accelerating the production of high-quality plantlets to meet the growing global demand for olive oil. Conservation and Breeding: Wild olives such as Oleaster serve as reservoirs of genetic diversity. Efficient micropropagation ensures germplasm preservation, supporting breeding programs aimed at enhancing stress tolerance and facilitating reforestation efforts. Scientific Understanding: The study provides a detailed analysis of cytokinin distribution relative to explant origin and culture density, deepening understanding of hormonal regulation in woody plant micropropagation. 7. Conclusion Olive micropropagation requires a careful balance of biology and technique. Apical dominance and culture heterogeneity have long limited the efficiency of in vitro propagation. This study demonstrates that manipulating explant origin and culture density can effectively overcome these constraints. Middle-section explants, when cultured at higher densities, show the most promising outcomes, with increased shoot proliferation, node production, and more uniform culture characteristics. Hormonal analysis further elucidates the mechanisms behind these responses, highlighting the role of cytokinins in mitigating apical dominance and enhancing growth. Overall, these findings provide a clear, practical roadmap for improving olive micropropagation protocols. By optimizing tissue selection and culture conditions, researchers and growers can achieve more efficient, cost-effective production of high-quality olive plantlets, supporting both commercial agriculture and the conservation of valuable olive genetic resources. For more information about topic, you can view the online video entitled "Explant Origin Culture Density Effects on Olive Micropropagation".
Blog 09 Mar 2026
The Encyclopedia platform, together with the journals Biology and Nutrients, launches the Best Video Abstract Awards to increase the visibility and reach of published research and to inspire researchers to explore the power of visual storytelling. Video abstracts have become an increasingly important medium for scientific communication. By integrating narration, visualizations, animations, and experimental footage, they make complex research more accessible, engaging, and memorable. This initiative recognizes video abstracts that are not only scientifically rigorous but also creatively compelling and educational, thereby promoting broader dissemination and deeper community engagement. To learn more about the awards or to participate directly, please visit the event page via the links provided below. https://encyclopedia.pub/best-video-abstract-award 1. Event Duration 9 February 2026 – 2 February 2027 2. Awards Biology Best Video Abstract AwardOpen to video abstracts based on papers published in Biology between 1 January 2024 and 31 December 2025. This award will be granted to two video abstracts based on the evaluation of the Award Evaluation Committee. Nutrients Best Video Abstract AwardOpen to video abstracts based on papers published in Nutrients between 1 January 2024 and 31 December 2025. This award will be granted to two video abstracts based on the evaluation of the Award Evaluation Committee. Prize For each journal award, the winner will receive: CHF 500 A voucher waiving the Article Processing Charges (APCs) for one journal submission (subject to peer review, valid for one year) A free Academic Video Service production (no matter where the paper is published), valid for one year. An electronic certificate Participant Incentive All participants will receive a CHF 100 discount voucher for the Encyclopedia Academic Video Service. 3. Participation The event will be conducted in three stages. Submission Stage 9 February 2026 – 31 August 2026 Independent Submission Authors may create and submit video abstracts independently using their own tools and creative approach. Professional Support Option Authors who do not currently have a video abstract but intend to apply for the award may opt for the Academic Video Service, which offers a one-stop, end-to-end solution covering script development, animation, voiceover recording, and editing. Please submit your video abstract here: https://encyclopedia.pub/user/video_add?activity=b57ab0910b456a5e4eebd960867ce205 Or place your video service order here: https://encyclopedia.pub/user/video_service_order All video abstracts will be assessed by the editorial team for editorial suitability and overall quality. Submissions that meet the guidelines will be assessed equally. Voting Stage 1 November 2026 – 31 December 2026 Public voting will be conducted during this period. Voting results and video performance metrics, including views, likes, shares, and collections, will contribute to the final evaluation. Winner Announcement 2 February 2027 Final winners will be determined based on a combined assessment of public voting results and a comprehensive evaluation by the Award Evaluation Committee, which carries the primary weight in the final decision. Winners will be announced on the Encyclopedia platform and journal websites. 4. Others If you have any other questions, please contact office@encyclopedia.pub
Announcement 09 Feb 2026
Highlights Video Abstracts (VAs) have evolved from experimental novelties into essential tools for research dissemination, significantly enhancing scholarly communication in a digital-first era, offering a repeatable model for maximizing impact in a competitive digital landscape. The MDPI Video Service produced 118 professional VAs in collaboration with 68 journals across 11 disciplines, serving 1,149 researchers and fostering a vibrant academic community in 2025. Video abstracts produced by MDPI's Video Service significantly boost article visibility, downloads, and citations, with case studies showing marked increases across journals such as Remote Sensing, Animals, Nutrients, and Entropy. 1. Introduction In 2011, quantum physicist Barry Sanders and his team at the University of Calgary broke new ground by publishing a video abstract (VA) alongside their pioneering research on qubits [1]. This four-minute visual summary, shared on YouTube amid viral content of cats and pop music, demonstrated a transformative idea: complex science could be communicated dynamically, reaching audiences far beyond traditional academic circles. Over a decade later, video abstracts (VAs) have evolved from experimental novelties into essential tools for research dissemination. As digital platforms dominate how knowledge is consumed and shared, the question is no longer whether video abstracts will endure, but how they redefine scholarly impact. In 2025, MDPI launched its Academic Video Service, aiming to support scholars through the production of Video Abstracts, Short Takes, Scholar Interviews, and Profile Videos. MDPI’s Video Service has witnessed a remarkable surge in interest from researchers worldwide. A growing community of scholars has progressed from discovering video abstracts for the first time to actively embracing their production, recognizing their power to transform specialized research into accessible knowledge. This report compiles and analyzes most of the data from the MDPI video service, with a focus on evaluating the role of VAs in enhancing scholarly communication. 2. Background and Market Context 2.1. The Visual Turn in Scholarly Communication The global video streaming market is projected to grow from USD 131.44 billion in 2024 to approximately USD 599.2 billion in 2033 [2], and many findings have indicated that this will be progressively accompanied by the use of social networking tools for informal scholarly communication [3], reflecting the increasing social reliance on video-based content. Within this context, scholarly communication is undergoing a “visual shift,” leading to the rise of VAs. The evolution of academic video publication—from early initiatives such as Screenworks (distributed alongside The Journal of Media Practice on DVD in 2006) to established platforms like JoVE (Journal of Visualized Experiments)—reflects the formal recognition of video as a legitimate form of scholarly output, now indexed in major academic databases [4]. This institutional acceptance aligns with a broader shift in research practices, as scholars increasingly utilize social media as a professional platform to amplify the reach and impact of their work [5]. 2.2. Core Value Proposition of VAs By combining dynamic visuals and narration, VAs distill and visualize the core concepts, methods, and contributions of academic papers. A growing body of research indicates that video content can contribute to an increase in various research metrics, such as citations and views [6]. They fulfill key roles in several communication scenarios: For broader research audiences (e.g., policymakers, industry R&D personnel, advanced students): VAs expand the reach and social visibility of academic work. For domain experts: VAs provide a more intuitive and information-dense overview than textual abstracts, improving literature screening efficiency. For interdisciplinary scholars: VAs reduce comprehension barriers and foster cross-disciplinary innovation. Within this expanding ecosystem, a growing number of academic service providers—including established players such as Springer Nature’s Video Abstract services, Wiley’s Research Video initiatives, and Taylor & Francis’s multimedia publishing programs—have entered the field, recognizing the potential of video to enhance research communication. 3. VA Production and Dissemination Data from MDPI's Academic Video Service, 2025 This section presents data sourced from MDPI’s Academic Video Service’s internal database and public analytics from third-party services, including YouTube, Facebook, and LinkedIn, reflecting the performance of the service throughout 2025. Where relevant, results are benchmarked against 2024 to illustrate year-over-year growth and trends. 3.1. Production Scale and Scholarly Coverage The inaugural year of MDPI's Academic Video Service has established a robust foundation for video abstract production and distribution. The service has successfully engaged a broad academic community while developing specialized content across multiple disciplines. The following data outlines the scope and reach achieved during the reporting period. Some of the partner journal series. The service produced 118 professional VAs and maintained 13 active VA-related video series. Collaborative partnerships with 68 leading academic journals spanned 10 major disciplines, including Medicine & Pharmacology, Biology & Life Sciences, Engineering, Environmental & Earth Sciences, Computer Science & Mathematics, Chemistry & Materials Science, Public Health & Healthcare, Social Sciences, Business & Economics, and Arts & Humanities. A total of 1,149 researchers have used the service, including 60 scholars who participated in customized VA production, with all content distributed through social media channels (Figure 1). Figure 1. Researchers who used MDPI’s Academic Video Service. All data was obtained from Encyclopedia. 3.2. Multi-Platform Dissemination and Performance VAs demonstrated strong performance across multiple distribution channels, showing substantial growth in reach and engagement metrics during the reporting period. In total, the produced VAs achieved 782,478 views across the Encyclopedia platform, Facebook, and YouTube, with 48,295,814 impressions recorded on the Encyclopedia platform and YouTube. A. VA Performance on Encyclopedia Platform As one of MDPI's key academic initiatives, Encyclopedia serves as MDPI’s primary platform for delivering integrated academic services. All the VAs produced through MDPI’s Academic Video Service were published through this platform. The year-over-year data reveals a story of validated success. The video content generated a monumental 47,834,514 total impressions, 41,240 total views, and 9,988 unique viewers. The number of unique viewers grew from 5,235 to 9,988, an unprecedented 90.8% year-over-year increase, demonstrating the efficient capture of audience interest at scale. B. VA Performance on YouTube The VAs produced were simultaneously released on MDPI’s YouTube channel. MDPI’s YouTube channel serves as a critical engine for global discoverability, showing strong year-over-year growth across all key metrics (Table 1). The following are the browsing-related data for VAs hosted on the YouTube channel. Table 1. Year-over-Year (YoY) Performance—video abstract channel metrics. All data was obtained from YouTube. Given that the VAs that are produced and published are generally around 4 minutes long, a watch time of 2:57 is equivalent to viewing nearly 73.75% of a VA. 3.3. Disciplinary Distribution of VA Engagement By analyzing and structuring VA browsing data across disciplines and research fields, we identified pronounced variations in the level of interest in VAs among scholars. These variations are evident in both scholars’ propensity to create VAs and their degree of engagement in consuming VA content. As shown in Figure 1, life sciences demonstrate the strongest participation, with Biology & Life Sciences recording the highest views (10,203) and attracting the largest viewer base (2,285). Medicine & Pharmacology and Engineering offer solid mid-tier performance with 9,948 and 5,149 views, respectively. Environmental & Earth Sciences (3,940 views) and Computer Science & Mathematics (3,337 views) show established audience interest, and Chemistry & Materials Science (3,125 views) also demonstrates consistent engagement (Figure 2). The findings indicate that scholars in biological, medical, and engineering fields are most active in watching video abstracts. Figure 2. Distribution of page views by academic discipline. Medicine, Biology, and Engineering ranked among the top three. All data was obtained from Encyclopedia. The following chart (Figure 3, 4) reveals clear patterns in audience distribution across academic disciplines, providing insights into which fields show the strongest engagement (comments, likes, favorites) with video abstracts. Figure 3. Distribution of viewers by academic discipline. While the top three fields were unchanged, Biology drew a larger audience despite having fewer videos. All data was obtained from Encyclopedia. Figure 4. Distribution of video engagement by academic discipline. Biology and Medicine showed noticeably higher engagement compared to other disciplines. All data was obtained from Encyclopedia. Biology & Life Sciences leads in audience reach with 2,285 viewers, closely followed by Medicine & Pharmacology with 2,222 viewers. These two disciplines together account for the largest share of VA viewership, reflecting strong scholarly interest in life science content. Based on the survey conducted by the MDPI Video Service regarding user satisfaction (Figure 5), approximately 50% of VA users hold professorial positions, including full professors, associate professors, and assistant professors. PHD students and Post-Doctoral researchers comprise 8.3% and 16.7% of the user base, respectively. Researchers from non-academic institutions account for 8.4%, while independent researchers represent 4.2%. The remaining users include consultants, visiting scientists, and retired researchers. Figure 5. Word cloud of user attributes. All data was obtained from the video service survey. Overall, the VA audience is predominantly composed of research professionals. The higher level of engagement observed among professors suggests that their interest in VA is likely driven by teaching and presentation requirements, stronger funding capacity, and sustained academic output. Furthermore, while the non-academic segment represents slightly more than 8% of users, it demonstrates tangible potential and should not be viewed as a market without opportunity. 3.4. Other Video Product Performance Throughout the reporting period, the MDPI Academic Video Service created 13 Scholar Interview videos, presenting conversations with prominent academics on their research and perspectives. This format holds particular appeal for audiences seeking direct insights from researchers. As shown in Table 2, this series garnered 2,034 views. It gained prominent exposure via 424,059 main page impressions and secured extensive reach through 5,658,196 recommending impressions. Table 2. Performance of Scholar Interview series. All data was obtained from Encyclopedia. This finding indicates a broad acceptance among scholars of interview-based video formats as an effective medium for content delivery. The strong performance of this series across discovery channels suggests that the content aligns well with diverse audience preferences. 3.5. Academic Community Engagement Through VA Activities The MDPI video service launched a ScholarVision Creations event on the Encyclopedia platform in 2024. The event was designed to introduce users to VAs and engage them in the VA production process. The event concluded with a vote to select the most popular VA created during the event period. The event drew considerable participation from scholars, generating notable momentum and driving interest in video abstracts (Table 3). Its strong reception reflects a clear interest among researchers in VAs as a format for academic communication. Table 3. Performance metrics of ScholarVision Creations Event and platform engagement. All data was obtained from Encyclopedia. The event yielded 40 videos and involved 204 participants. Four researchers garnered awards for outstanding contributions, while participants completed 2,669 engagements during the event (engagements include creating entries, submitting images, editing entries, and similar actions). Page views increased by ~930% and Visitors by ~690%, indicating highly effective audience reach. The exceptionally high conversion rate of new users into credit recipients directly reflects a strong user interest in the campaign's core value and a clear intent to engage with VA creation. 4. Impact of Video Abstracts on Enhancing Research Visibility The effect of VAs on article performance represents the primary area of concern among scholars. Accordingly, this section consolidates data collected from VAs and articles, examining both the VAs' impact on their corresponding original articles and the dissemination performance of the articles across online channels. 4.1. VA-Driven Changes in Article Reach and Metrics Over the past year, tracking the performance of the VA Series and comparing its data with that of the previous reporting cycle has revealed a clear trend: the substantial growth in the platform-wide exposure of VAs has expanded into the millions. This marks a dramatic rise from the previous statistical period (2024), when total exposure across all VA series remained below 200,000 (181,553) impressions (Table 4). Table 4. The exposure of individual series has now reached the millions. All data was obtained from Encyclopedia. *The JCM VA series was established in 2025 and therefore does not have corresponding data for the previous statistical period (2024). A comparative study was conducted using articles published in four target journals—Journal of Clinical Medicine (JCM), Agronomy, Remote Sensing, and Nutrients—with Impact Factors of 2.9, 3.4, 4.1, and 5.0, respectively. The analysis covers all articles released between January 1, 2023, and October 31, 2025. Articles accompanied by video abstracts (with VAs produced by MDPI’s academic video service; 30 in total) were designated as the experimental group, while the remaining 24,906 articles without VAs published during the same period formed the control group. For both cohorts, cumulative performance metrics—including article views, downloads, and citations—were collected up to the common statistical cutoff date. A comparison of group-level averages across these key indicators (Figures 6, 7, 8) enables a systematic assessment of the long-term impact of VAs on content dissemination and academic influence. Figure 6. After implementing VAs, the average view count of all journals significantly exceeded that of those without VAs. All data was obtained from MDPI. Figure 7. Comparison of average article downloads with and without VA support across four journals, showing consistent increases in downloads for video-supported articles, with relative increases ranging from 3.94% to 47.19%. All data was obtained from MDPI. Figure 8. Comparison of average article impact metrics for articles published with and without MDPI’s Academic Video support across four journals, showing consistently higher values for video-supported articles. All data was obtained from MDPI. In terms of uplift magnitude, page views increased by as much as 112.25% for Remote Sensing, citation growth reached a peak of 201.2% for JCM, and download growth spanned the range between 3.94% and 47.19%. These results highlight clear differences in the strength of the VA service across the dimensions of content dissemination and scholarly impact. Remote Sensing is the journal benefiting most strongly from VA, recording a 112.25% surge in page views—the highest among all journals—alongside a 51% increase in citations and a 3.94% rise in downloads. This profile reflects an exposure-driven, burst-style growth pattern. For newly integrated JCM articles, VAs demonstrate exceptional effectiveness in driving both academic impact (citations) and downstream conversion (downloads). This finding aligns with the earlier analysis, which indicates stronger audience engagement with biology & medicine content. By contrast, Agronomy exhibits a well-balanced response to VAs, with no pronounced weaknesses and steady improvements across the entire dissemination-to-impact pipeline. Nutrients also records positive gains across all three indicators (citations +30.61%, downloads +12.35%, views +9.22%), though the overall increase remains comparatively limited and weaker than that observed for the other three journals. Taken together, the results show that VAs effectively enhanced both dissemination efficiency (views to downloads) and academic impact (citations) across all four journals. However, its effectiveness is clearly shaped by disciplinary characteristics: technology-focused journals (e.g., Remote Sensing) tend to achieve rapid gains in visibility through VAs, whereas medical journals (e.g., JCM) perform better at translating enhanced exposure into deeper academic influence. 4.2. Impact of Video Abstracts on Research Dissemination The deployment of a VA serves as an effective catalyst for the associated research article, as evidenced by the Encyclopedia video dashboard and data from social media platforms. A. Article Visibility Amplified by VA Distribution Each VA prominently features the article’s DOI within the video content itself. This design ensures a direct navigational pathway from VA exposure to the original publication, providing a clear analytical rationale for attributing changes in article access (views) behavior to VA visibility. The impact of a VA on article visibility is assessed by continuously monitoring and comparing article access data before and after the VA is made available online. Case 1: Optimizing Lettuce Growth in Nutrient Film Technique Hydroponics: Evaluating the Impact of Elevated Oxygen Concentrations in the Root Zone under LED Illumination Case 1 was initially published on August 24, 2024. During its first month, it received 816 page views, averaging 25.5 daily views, and reached a monthly peak of 1,163 in the third month. The average daily views over the first three months totaled 30.4, after which traffic gradually declined and stabilized. Prior to the release of the VA, the article’s monthly views averaged 677.7. The associated VA was launched on July 22, 2025. Following the launch, page views rose to 906 in the first month, representing a 33.7% increase over the pre-VA monthly average. Traffic continued to grow over the subsequent three months, reaching a peak of 1,763 in November 2025—an increase of 160% compared to the pre-VA baseline. As of the report date, December traffic stood at 1,309, still 93% higher than the pre-VA average. Over the five months following the VA release, the article averaged 1,383.6 monthly views (44.6 daily views), reflecting a 104% increase in growth relative to the monthly average before the VA launch. Figure 9. Viewership trend of Case 1 after its publication. All data was obtained from MDPI. Insights from the line chart and supporting data reveal that the VA maintained a persistent impact on readership well beyond its publication date, significantly improving the article’s visibility and engagement trajectory. Case 2: A Survey of Object Detection for UAVs Based on Deep Learning The article examined in this analysis was initially published on December 29, 2023, with its associated VA content released on February 24, 2024. During the first three months after publication, the article exhibited stable and consistent performance. Average daily traffic remained at 17.7 views, while monthly views increased gradually from 535 to 639 (Figure 10), implying a normal early-stage growth pattern without external intervention. The deployment of the VA marked a clear inflection point in the traffic trajectory. In the first full month following launch (March 2024), article views increased sharply by 62.4% to 1,038. Following a brief and modest correction in April 2024—likely attributable to natural fluctuation—traffic strongly rebounded, reaching a cycle peak of 1,415 views in May 2024. This period represents the concentrated achievement of the synergistic impact generated by a VA. Following this peak, beginning in June 2024, the article’s traffic entered a gradual and anticipated normalization phase, ultimately stabilizing at a sustained level that remained structurally higher than the initial baseline. Figure 10. Viewership trend of Case 2 before and after the launch of its VA. All data was obtained from MDPI. Overall, this pattern aligns with a classic content re-amplification lifecycle, wherein the introduction of a VA catalyzes short-term pulse growth, followed by convergence toward a new steady state. B. Expanding Reach to New Audiences via Social Platforms Case 3: Attitudes Toward Managing the Fish-Eating Great Cormorant The article analyzed here was published on April 23, 2025, with its associated VA content released on July 3, 2025, and concurrently distributed via the Facebook homepage. By the statistical cutoff date of January 27, 2026, the video had generated 409,966 cumulative views while reaching 9,224 unique users (Figure 11), yielding an exceptionally high views-to-reach ratio and indicating strong visibility amplification and repeated content consumption. Figure 11. Performance overview of Case 3 on Facebook. All data was obtained from Facebook. Total viewership for this VA amounted to 12 days and 5 hours (293 hours in total), distributed as shown in the chart above. In addition, the watch time distribution (Figure 12) reveals a critical insight: the audience composition suggests that the vast majority of views originated from non-followers, highlighting the VA’s effectiveness in reaching new viewers and expanding content discoverability. Figure 12. Watch time distribution. This significant difference is largely due to the extensive exposure and the number of followers. All data was obtained from Facebook Insights. The data reveal a pronounced drop-off in viewing depth; however, 78,947 instances of 3-second views suggest that the video initially captured attention. The Watch Time Trend (Figure 13) indicates effective initial audience engagement and successful early reach. Figure 13. The Watch Time Trend Chart illustrates a robust launch phase in late July, with watch time quickly reaching a significant initial level. All data was obtained from Facebook Insights. Throughout August and September, the watch time maintained consistently high performance, reflecting stable viewer interest and strong retention. The stability during this period suggests that the content had lasting value and continued to attract views well beyond its release date. A gradual decline is visible from October onwards—a common pattern for published content over time. Furthermore, the post for the VA achieved 819 impressions and an impressive 312 views on LinkedIn. In other words, the video achieved a view-through rate (VTR) of 39.2%, calculated by dividing views by impressions (321/819). This substantially exceeds typical industry benchmarks for academic and professional content, which generally range between 15 and 25. This high VTR indicates significant content relevance and a strong appeal to the target audience. Over the past year, the average VTR of all the VAs published on LinkedIn reached an impressive 62.4%, well above the general range mentioned earlier. 5. Conclusions and Outlook The evidence presented in this report leads to an unequivocal conclusion: in an increasingly crowded digital landscape, the VA has evolved from a novel supplement into a critical component of a modern research dissemination strategy. The data confirms that VAs deliver transformative value by directly addressing the core challenge of academic visibility. For Authors: VAs capture global attention and drive engagement, translating into increased article visibility and academic impact. For Journals: VAs significantly boost content consumption metrics and expand readership through algorithmic distribution, enhancing the journal's reach and influence. Looking forward, the integration of video into scholarly communication is not a passing trend but a fundamental shift. Many researchers feel that deepening understanding is a collaborative effort. Thus, extending an invitation for others to engage with their work is a natural and rewarding step. About MDPI’s Video Service The MDPI Video Service was launched in 2025 to meet the growing demand for dynamic research dissemination. The service offers comprehensive video solutions, including Video Abstracts, Short Takes, and Profile Videos. MDPI’s video service provides a one-stop service, including one-on-one video assistance, script writing, high-quality animation, a native speaker voice, quality assurance, and social media promotion. For video examples, see Heat-Sealing Process for Chañar Brea Gum Films and ESG Reporting for Large US Airports Reference [1] Spicer, S. Exploring Video Abstracts in Science Journals: An Overview and Case Study. J. Librariansh. Sch. Commun. 2014, 2,eP1110. [2] Video Streaming Market Trends, Shares, Competition and Growth Forecast 2025-2033 - Cloud Tech and Mobile Platforms Continue to Transform the Landscape, Fueling User Engagement and Market Expansion. Available Online: https://www.globenewswire.com/news-release/2025/10/31/3178410/28124/en/Video-Streaming-Market-Trends-Shares-Competition-and-Growth-Forecast-2025-2033-Cloud-Tech-and-Mobile-Platforms-Continue-to-Transform-the-Landscape-Fueling-User-Engagement-and-Marke.html (accessed on 11 November 2025) [3] Al-Aufi, A; Fulton, C. Impact of social networking tools on scholarly communication: a cross-institutional study. Electron. Libr. 2015, 33, 224–241. [4] Laaser, W.; Toloza, E.A. The changing role of the educational video in higher distance education. Int. Rev. Res. Open Dis. 2017, 18, 2.  [5] Gazi, M. A. I.; Rahaman, M. A.; Rabbi, M. F.; Masum, M.; Nabi, M. N.; Senathirajah, A. R. bin S. The Role of Social Media in Enhancing Communication among Individuals: Prospects and Problems. Environ. Soc. Psychol. 2024, 9, 11. [6] Bonnevie, T.; Repel, A.; Gravier, F.E.; Ladner, J.; Sibert, L.; Muir, J.F.; Cuvelier, A.; Fischer, M.O. Video abstracts are associated with an increase in research reports citations, views and social attention: a cross-sectional study. Scientometrics 2023, 128, 3001–3015.
Announcement 03 Feb 2026
Journal Encyclopedia
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Peer Reviewed
Encyclopedia 2026, 6(2), 50; https://doi.org/10.3390/encyclopedia6020050
See what people are saying about us
Shlomi Agmon
Encyclopedia Video provides potential readers with a tool to quickly understand what the work is about. That is important for casualreaders, whose time is thus spared, and for investedreaders, for whom it makes the decision to say "yes, I want to read the paper" much simpler.
School of Computer Science and Engineering, The Hebrew University of Jerusalem, Jerusalem 9190401, Israel
Ignacio Cea
For the video abstracts, the papers and authors could gain more visibility and increase citations. Also, it means a more diverse and interesting way of communicating research, which is something valuable in itself.
Center for Research, Innovation and Creation, and Faculty of Religious Sciences and Philosophy, Temuco Catholic University
Melvin R. Pete Hayden
Thank the video production crew for making such a wonderful video. The narrations have been significantly added to the video! Congratulations on such an outstanding job of Encyclopedia Video team.
University of Missouri School of Medicine, United States
Academic Video Service