Podcast appearances and mentions of aaron tucker

Welcome to The Turf Zone Podcast. This episode features the article “How Variability Within and Between Natural Turfgrass and Synthetic Athletic Fields Impacts Athlete Safety and Performance” written by Ava Veith, Dr. David McCall, Dr. Chase Straw, Dr. Daniel Sandor, Dr. Jay Williams, Elisabeth Kitchen, Kevin Hensler, Aaron Tucker and Dr. Caleb Henderson Authors Note and Context Ava Veith is a Ph.D. student in the Department of Plant Science at Penn State University under the advisement of Dr. Chase Straw, where her research focuses on studying within-field variability and athlete–surface interactions. However, the research presented in this article was conducted during her master's program at Virginia Tech under Dr. David McCall. This study served as a foundational investigation into how variability within and between natural turfgrass and synthetic turf athletic fields influences athletes. The findings from this work have shaped the direction of subsequent doctoral research. Building on this foundation, the planned Ph.D. project aims to examine athlete lower-limb joint biomechanics across natural turfgrass, synthetic turf, and hybrid (natural turfgrass reinforced with synthetic fibers) surfaces using multi-segment inertial measurement units. At the conclusion of this article, the next phase of research will be briefly outlined to demonstrate how it has grown from the master's study. In this way, the Virginia Tech study presented here represents both a completed project and the starting point for a broader, ongoing effort to better understand how the playing surface can affect athlete movement and injury-relevant mechanics. Introduction A safe playing surface is essential for athletic competition. Natural turfgrass and synthetic turf are common playing surfaces used for field sports, and extensive research has been conducted to compare these two surface types. However, limited attention has been given to within-field variability and its impact on athlete safety and performance. Studies often classify athletic fields broadly as synthetic or natural, overlooking critical surface metrics that fluctuate both within and between fields. Key field characteristics such as surface hardness, rotational resistance, soil moisture, thatch depth, and infill depth (for synthetic fields) play a crucial role in assessing field quality. Variability in these factors can be influenced by environmental conditions, management practices, and field usage patterns. Despite the known importance of these factors, current research often fails to account for field-specific inconsistencies, limiting the effectiveness of broad comparisons between surfaces. To improve field safety and optimize athlete performance, interdisciplinary collaboration among turfgrass scientists, sports scientists, and sports medicine professionals is necessary. Evidence-based field management strategies must be developed to ensure more consistent playing conditions, reducing the risk of injury. Wearable technologies such as STATSports GPS trackers (STATSports, 2025) and ankle inertial measurement units (IMUs) (IMeasureU, 2019) provide critical insights into athlete biomechanics, load monitoring, and more. These technologies allow researchers to quantify how different surface conditions influence athletes during performance, offering valuable data for injury prevention strategies. Beyond data collected by wearable technologies, athlete perceptions of field conditions also play a role in performance and injury risk. Unpredictable surface variability can affect player confidence, movement efficiency, and risk-taking behaviors, making perception-based data collection essential. Understanding how athletes experience and perceive different playing surfaces can inform future improvements in field construction and maintenance. The objective of this study is to quantify the impact of surface variability on athlete safety and performance, both within and between natural turfgrass and synthetic turf surfaces. This research will quantify how variations in key surface metrics, including surface hardness, rotational resistance, soil moisture, thatch depth, and infill depth, affect athletes utilizing data from wearable technologies, such as STATSports GPS trackers and ankle IMUs. Additionally, to further understand the influence of field surfaces, athletes will be surveyed before and after performing drills to gather insights into their perceptions of how surface variability impacts their performance. Methodology Athletic Fields Tested This research was conducted in August of 2024, where four athletic fields on the Virginia Tech campus in Blacksburg, Virginia were studied. Two of these fields were natural turfgrass (bermudagrass), while the other two fields were synthetic turf. For both field types, one field was classified as ‘low usage', while the other was classified as ‘high usage'. This was determined based on traffic frequency, field age, and management practices. Preliminary Data Collection Before live athletes were introduced, surface hardness was assessed on all four fields using a Clegg hammer, with 100 measurements collected per field. The data were then analyzed using ArcGIS Pro to generate surface hardness heatmaps, highlighting variability between and within each field. These maps allowed us to identify specific locations for the athletes to perform drills, where one selected area within each field was slightly harder than the rest of the field, and the other being slightly softer. Additionally, 20 measurements of rotational resistance (using Deltec's rotational resistance tester), thatch depth (using a soil profile sampler), soil moisture (using a TDR 350 Soil Moisture Meter), and infill depth (using a Turf-Tec Professional Model Infill Depth Gauge) were taken in both the softer and harder areas to further characterize each field and understand the relationship between surface conditions and athlete performance. Data Collection During Athlete Involvement Fourteen female athletes participated in the study, equipped with STATSports GPS devices (to measure running speed) and ankle IMUs (to measure lower limb impact intensity) to quantify their movements during drills. The athletes were each given new Nike cleats prior to participation to eliminate variation based on cleat configuration. They completed three drills, including a drop landing or drop jump drill, a T-drill, and a modified acceleration-deceleration drill, which were designed to replicate common athletic movements. Each drill was performed three times in both the softer and harder areas identified within each field. Additionally, each athlete completed pre- and post-performance surveys designed to capture their perceptions of field quality before and after completing the drills, providing insight into how different surfaces may have influenced their performance. Results and Discussion Surface Hardness Data Heatmaps highlight surface hardness variability within each studied field. Surface hardness data (n = 100 per field) were analyzed using analysis of variance, and means were separated using Fisher's protected least significant difference (LSD) test at α = 0.05 to evaluate statistical differences between locations. Both synthetic turf fields had significantly harder surfaces than the natural turfgrass fields (p < 0.0001), and for both surface types, the high-usage field had a significantly harder surface than the low-usage field (p = 0.0029 for the natural turfgrass fields and p < 0.0001 for the synthetic turf fields). Both synthetic fields tested in this study were not constructed with a shock pad, which is typically placed beneath the layer of material that supports the synthetic fibers and utilized to help replicate the cushioning effect of natural turfgrass. The absence of a shock pad, along with the tendency of synthetic turf to harden over time due to infill material compaction from athlete foot traffic, may explain the harder surface values observed on the synthetic fields compared to the natural fields. Further, increased use or foot traffic on both natural turfgrass and synthetic turf leads to compaction, which causes the playing surface to harden over time. Therefore, it is anticipated that the high-usage fields exhibited higher surface hardness compared to the low-usage fields. Data Within Each Hard and Soft Area Resulting rotational resistance, thatch depth, soil moisture, and infill depth (synthetic fields only) measurements taken within each hard and soft area on all four fields are presented in Table 1 (available in the Spring 2026 issue of Pennsylvania Turfgrass magazine). These measurements (n = 20 per both hard and soft areas within each field) were analyzed using analysis of variance, and means were separated using Fisher's protected least significant difference (LSD) test at α = 0.05 to evaluate statistical differences between locations. Although the fields tested in this research were not professional-level fields, it is insightful to compare the results with the FIFA natural-pitch rating system (FIFA, 2022). All rotational resistance values fell within FIFA's ‘excellent quality' and ‘satisfactory quality' thresholds, which is important because excessive rotational resistance has been linked to increased lower extremity injuries due to the foot becoming entrapped in the surface during pivoting movements, and too little resistance can increase the risk of slipping. However, soil moisture values exceed 35%, which FIFA classifies as ‘unacceptable quality'. This elevated moisture is likely the primary cause of the low surface hardness values observed on the natural turfgrass fields, which were lower than FIFA's 70-85 Gmax ‘excellent quality' range. Additionally, FIFA considers thatch depths over 25 mm as unacceptable, and 10–15 mm satisfactory. Excessive thatch can cause athlete's cleats to become caught within the surface, increasing knee ligament stress. The low-usage natural turfgrass field had more thatch despite regular maintenance, while the high-usage natural turfgrass field had less, likely due to recent sprigging the summer before. Soft areas in both natural turfgrass fields exhibited higher thatch levels than the hard areas, consistent with previous findings that core cultivation reduces both thatch and surface hardness (McCarty et al., 2007; Atkinson et al., 2012). This supports the understanding that increased thatch can act as a cushioning layer, absorbing impact and thereby reducing surface hardness. The high-usage synthetic turf field exhibited significantly less infill and greater surface hardness compared to the low-usage synthetic turf field, and the soft areas within both synthetic fields had more infill than the hard areas. This aligns with previous research indicating that infill depth decreases with use, which in turn leads to higher surface hardness (Dickson et al., 2022). Additionally, the low-usage synthetic field exhibited greater variability in infill depth between the selected hard and soft areas, likely due to its relatively young age (only one year old at the time of the study). Compared to the older high-usage field, which was approximately ten years old, the infill in the low-usage synthetic field had less time to settle, making it more susceptible to displacement from foot traffic (Fleming et al., 2016). STATSports GPS Unit Data In our study, STATSports GPS units were securely attached to each athlete's upper back. These devices were used to determine if athlete running speed varied based on field type (natural turfgrass or synthetic turf), field usage level (high or low), or hardness (hard or soft areas within each field). However, no statistically significant differences were found. This consistency in speed across conditions is important because running speed can directly affect impact forces and biomechanical measurements. Prior studies have shown that faster running increases the ground reaction force and ultimately lower limb impact load (Leatham, 2004; Jiang et al., 2024). If athletes had run at different speeds on one field type compared to another, it could have affected the reliability of our ankle IMU data. However, since no significant speed differences were found across field types, usage, or hardness, we can confidently attribute the observed differences in the resulting ankle IMU data to the playing surface. Ankle IMU Data Ankle IMUs were utilized to record a metric called average intensity, which is defined as the mean impact intensity derived from every impact propagated into both limbs (IMeasureU, 2022). This metric is recorded in units of gravitational force (g). These devices were securely attached to each athlete's ankle and recorded data as they performed drills on all four fields studied. After running statistical tests that accounted for individual differences between athletes, significant differences were found based on field, field usage, and hardness. Across all three drills, field type had a noticeable impact (p < 0.0001) where athletes showed higher average intensity on synthetic turf fields compared to natural turfgrass. For the drop jump drill, the average intensity was 19.73 g [standard error (SE) ± 1.88] on natural turfgrass and 22.73 g (SE ± 1.82) on synthetic turf, placing the synthetic turf value within the IMU Step ‘high intensity' foot strike range of 21.5–26.7 g (Wong and Finch, 2018). A similar trend was seen in the t-drill, with average intensities of 15.84 g (SE ± 1.20) on natural turfgrass and 18.07 g (SE ± 1.16) on synthetic turf. For the modified acceleration-deceleration drill, average intensity was 17.72 g (SE ± 1.15) on natural turfgrass and 21.35 g (SE ± 1.10) on synthetic turf. Field usage also made a difference in the t-drill (p < 0.0001), where the average intensity on high-usage fields was 18.14 g (SE ± 1.24), compared to 16.49 g (SE ± 1.24) on low-usage fields. Hardness played a role as well, especially in the t-drill (p = 0.0073) and the modified acceleration-deceleration drill (p < 0.0001). In the t-drill, hard areas resulted in an average intensity of 17.43 g (SE ± 1.22), slightly higher than the 17.05 g (SE ± 1.22) on soft areas. For the modified acceleration-deceleration drill, intensity averaged 20.38 g (SE ± 4.28) on hard areas and 18.85 g (SE ± 3.81) on soft areas. Overall, the synthetic turf fields, high-usage fields, and hard areas within fields exhibited higher average intensity values than the natural turfgrass fields, low-usage fields, and softer areas within fields. This aligns with our surface hardness findings, as synthetic turf fields were significantly harder than natural turfgrass fields on average. Additionally, hard areas within synthetic turf were harder than those on natural turf, and high-usage fields were harder than low-usage fields for both surface types. Thus, our data suggest that harder surfaces may explain the higher average intensity values recorded on the athlete's lower limbs compared to softer surfaces. This trend has been heavily supported, as running on harder surfaces increases impact stress, which can ultimately contribute to lower limb injuries. However, all surface hardness values in this study were below 100 Gmax, which is the threshold deemed unsafe by the National Football League (NFL) guidelines (Sports Turf Managers Association, 2019) and unacceptable by FIFA. Yet, a potential positive correlation between surface hardness and impact was observed, as recorded by the ankle IMUs. While further research is needed, it is hypothesized that surface hardness exceeding 100 Gmax could significantly increase injury risk over time due to excessive impact on athletes' lower limbs. Additionally, establishing threshold values for ankle IMU metrics is crucial to determine the point at which these values may lead to injury. Survey / Athlete Perception Data Athletes completed pre- and post-performance surveys to assess field quality and its impact on their performance. Individual responses were recorded and analyzed using one-way analysis of variance to assess statistical differences between fields. Post-hoc comparisons were conducted using Fisher's protected least significant difference (LSD) test at α = 0.05. The low-usage natural turfgrass field received the highest quality rating for both pre- and post surveys, while the high-usage natural turfgrass field, hindered by weeds and poor maintenance, scored the lowest. Synthetic turf fields ranked in between the two natural fields (with the high usage synthetic turf field being ranked lower than the low-usage synthetic turf field), indicating a preference for synthetic surfaces over a poorly maintained natural field. Conclusions Considerable variation in surface hardness was observed both within and between fields, with synthetic turf fields generally being harder than natural turfgrass fields. High-usage fields, regardless of type, were significantly harder than low-usage fields. Other metrics, such as rotational resistance, soil moisture, thatch depth, and infill depth, also showed variability. For natural turfgrass fields, higher soil moisture led to lower surface hardness, while synthetic turf fields exhibited a negative relationship between field usage and infill depth, where frequent foot traffic reduced infill and increased surface hardness. Although achieving perfect field uniformity is not possible, these findings emphasize how field usage and maintenance impact surface variability. Additionally, our data suggest a potential link between surface hardness and the mechanical load on athletes' lower limbs. While this trend was observed, further research is needed to investigate its long-term effects on athlete health, particularly on surfaces that exceed acceptable hardness thresholds. Survey data revealed athletes rated the quality of the low-usage natural turfgrass field the highest, likely due to its softer surface and better aesthetics. In contrast, the high-usage natural turfgrass field, which suffered from poor maintenance and weed pressure, received the lowest ratings, underlining the importance of field condition in shaping athlete perceptions. These results highlight the role of field management and athlete feedback in optimizing field quality. Overall, this study offers valuable insights into how different sports surfaces impact athletes. Our findings suggest that harder surfaces, such as synthetic turf or high-traffic areas, can increase impact and loading on the lower limbs. These results highlight the critical importance of effective field management, maintenance, and consideration of field conditions prior to athletic competition. Next Phase of Research: Ph.D. Project Overview Building on the findings of the Virginia Tech study, this doctoral research at Penn State expands the investigation from impact loading to full lower-limb joint biomechanics during sport-specific movements. While the Virginia Tech study demonstrated that harder surfaces were associated with increased lower-limb impact intensity, the next question is whether different playing surfaces subtly alter how athletes move at the joint level during high-risk tasks such as cutting and decelerating. The planned Ph.D. project uses a multi-segment inertial measurement unit (IMU) configuration placed on the athlete's dominant limb, including sensors at the foot, shank, thigh, and pelvis. Positioning sensors closer to the ground improves sensitivity to surface-related differences, allowing evaluation of not only impact but also ankle, knee, and hip joint kinematics derived through inverse kinematics workflows. Female athletes will perform sport-specific movements, including a single-leg drop-landing followed by a 90° cut, as well as an acceleration to deceleration drill, on four playing surface types: natural turfgrass, synthetic turf, carpet-type hybrid reinforced turfgrass, and stitched fiber hybrid reinforced turfgrass. Each athlete will complete multiple trials on each surface in a within-subject, repeated-measures design, allowing direct biomechanical comparisons across surface types. Female athletes are of particular interest given they experience substantially higher rates of non-contact ACL injury compared to their male counterparts, highlighting the importance of understanding how the playing surface may influence movement. Joint angles of interest include knee flexion and frontal-plane knee motion (dynamic valgus), as well as hip and foot orientation variables commonly discussed in the context of non-contact ACL injury mechanisms. Because hybrid systems are increasingly used in elite stadium environments and are required for upcoming international competitions (e.g., the FIFA World Cup), understanding how live athletes respond biomechanically to these surfaces is of particular interest. To date, most hybrid research has relied primarily on mechanical testing devices rather than human movement data. An additional component of the project involves comparing human biomechanical responses to mechanical surface testing metrics, including measurements from the fLEX testing device (Dickson and Sorochan, 2022; SGL System, n.d.). If consistent relationships are identified between device measurements and athlete joint mechanics, field managers may ultimately be able to more confidently use standardized mechanical testing tools as practical indicators of athlete–surface interactions. Collectively, this progression advances a more comprehensive framework that integrates both the playing surface and athlete biomechanics. By focusing on human movement responses within real field environments, this work strengthens interdisciplinary collaboration across field management, kinesiology, and sports medicine. Ultimately, it aims to generate practical knowledge that supports both performance and safety in sport. A full list of references as well as accompanying figures, photos and tables are available with this article in the Spring 2026 issue of Pennsylvania Turfgrass magazine available on www.TheTurfZone.com. You have been listening to The Turf Zone Podcast. Follow The Turf Zone on X, Facebook and LinkedIn for all things turfgrass, featuring podcasts, magazines, events and more. The post How Variability Within and Between Natural Turfgrass and Synthetic Athletic Fields Impacts Athlete Safety and Performance appeared first on The Turf Zone.

Welcome to The Turf Zone podcast. This episode features the article “Minimizing Spring Dead Spot” written by M. Aaron Tucker, Assistant Professor, Auburn University and Wendell J. Hutchens, Assistant Professor, University of Arkansas. Introduction Spring Dead Spot (SDS) is one of the most persistent and damaging diseases affecting warm-season turfgrasses that undergo winter dormancy. First documented in 1954 on a bermudagrass lawn in Stillwater, Oklahoma, SDS continues to challenge turf managers across the southern and transition zone of the United States (Wadsworth & Young, 1960; Tredway, 2009). This article outlines the biology of the disease, key infection periods, and the latest cultural and chemical strategies for effective management. Pathogen Biology SDS is caused by soil-borne fungi in the genus Ophiosphaerella, specifically O. herpotricha, O. korrae, and O. narmari. These pathogens differ in geographic distribution and turfgrass host preference. In Alabama, O. korrae is likely the most prevalent species (Hutchens et al., 2025). Disease Cycle and Symptoms The fungi that cause Spring Dead Spot are ectotrophic root-infecting pathogens, colonizing the outer surfaces of roots, rhizomes, and stolons, leading to necrosis. This damage predisposes turfgrass to winter injury, with symptoms emerging in spring due to the combined effects of fall infection and harsh winter conditions. SDS is a monocyclic disease, with a single infection cycle per year. Infection occurs in late summer to early fall, when evening temperatures cool and soil temperatures drop consistently below 70°F. Symptoms appear in spring as circular or semi-circular patches of dead turf, ranging from six inches to several feet in diameter. Severe outbreaks can result in large, coalesced areas of turf loss, with recovery taking two to three months after green-up—making proactive management essential. Cultural Management Strategies Effective cultural management hinges on understanding the disease's biology. Thatch and organic matter serve as reservoirs for pathogen survival. Practices such as core aerification, verticutting, and fraze mowing during the summer remove thatch and dilute organic matter, thereby reducing inoculum and mitigating spring symptoms (Hutchens et al., 2025). Conversely, cultural practices such as verticutting and aerification on symptomatic turf in spring can actually hinder recovery. Mechanical stress on already damaged turf slows regrowth, so spring cultivation should be avoided. Proper fertilization, particularly nitrogen applications in late summer/fall and spring, supports plant health and recovery (Tredway, 2021; Hutchens et al., 2022). Ammonium sulfate has shown efficacy against O. herpotricha, while calcium nitrate is more effective against O. korrae—highlighting the importance of pathogen identification (Tredway, 2021). Chemical Management Strategies Chemical control with fungicides is most effective when timed correctly. Applications should occur during fall as soil temperatures drop consistently between 65-55°F. Current research is refining this window using the Battaglia-Hutchens cooling degree-day model to optimize timing (Battaglia et al., 2024). The modern demethylation-inhibiting (DMI) fungicide mefentrifluconazole offers strong SDS suppression, while older DMIs like propiconazole and tebuconazole provide moderate efficacy (Clarke et al., 2020). Select succinate dehydrogenase-inhibiting (SDHI) fungicides—like isofetamid, penthiopyrad, and pydiflumetofen—also provide excellent control but carry a higher risk of resistance. Rotating SDHIs with DMIs is recommended to preserve efficacy. Precision Application Technologies Advancements in GPS-guided sprayers allow for targeted fungicide applications. Mapping disease areas in spring and early summer enables precise fall fungicide treatments, reducing both cost and environmental impact (Booth et al., 2021; Henderson et al., 2025). Conclusion Understanding pathogen biology, the disease cycle, and optimal application timing is essential for managing SDS. Continued research is uncovering pathogen-specific responses to cultural and chemical strategies, offering promising avenues for more refined and effective control. Literature Cited Battaglia, M., Hutchens, W. J., & Roberson, T. (2024, November). Development of a Fungicide Application Timing Model for Spring Dead Spot Using Cooling Degree-Days. In ASA, CSSA, SSSA International Annual Meeting. ASA-CSSA-SSSA. Booth, J. C., Sullivan, D., Askew, S. A., Kochersberger, K., & McCall, D. S. (2021). Investigating targeted spring dead spot management via aerial mapping and precision-guided fungicide applications. Crop Science, 61(5), 3134-3144. Clarke, B. B., Vincelli, P., Koch, P., & Chou, M. Y. (2020). Chemical control of turfgrass diseases 2024. Henderson, C., Haak, D., Mehl, H., Shafian, S., & McCall, D. (2025). Precision mapping and treatment of spring dead spot in bermudagrass using unmanned aerial vehicles and global navigation satellite systems sprayer technology. Precision Agriculture, 26(2), 38. Hutchens, W. J., Booth, J. C., Goatley, J. M., & McCall, D. S. (2022). Cultivation and Fertility Practices Influence Hybrid Bermudagrass Recovery from Spring Dead Spot Damage. HortScience, 57(2), 332-336. Hutchens, W. J., Anders, J. K., Butler, E. L., Kerns, J. P., McCall, D. S., Miller, G. L., & Walker, N. R. (2025). Fifteen years of findings: Advancements in spring dead spot research from 2009 to 2024. Crop Science, 65(1), e21367. Tredway, L. P., Tomaso-Peterson, M., Perry, H., & Walker, N. R. (2009). Spring dead spot of bermudagrass: A challenge for researchers and turfgrass managers. Plant Health Progress, 10(1), 32. Tredway, L. P., Soika, M. D., Butler, E. L., & Kerns, J. P. (2021). Impact of nitrogen source, fall fertilizers, and preventive fungicides on spring dead spot caused by Ophiosphaerella korrae and O. herpotricha. Crop Science, 61(5), 3187-3196. Wadsworth, D. F., & Young, H. C. (1960). Spring dead spot of bermudagrass. Plant Dis. Rep, 44, 516-518. You have been listening to The Turf Zone Podcast. Follow The Turf Zone on X, Facebook and LinkedIn for all things turfgrass, featuring podcasts, magazines, events and more. Visit www.theturfzone.com for more. The post Minimizing Spring Dead Spot appeared first on The Turf Zone.

Today on the show we have a professor of medicine, a computer scientist and an English professor, all talking about Artificial Intelligence and research. They dive into the role AI can play, its potential, and they seperate help from hype. Guests: Michelle Ploughman, professor at the faculty of medicine at MUN; Xianta Jiang, MUN computer science professor at the department of computer science; Aaron Tucker, English professor and author.

US diesel prices have rallied this summer as strong export demand has helped to tighten inventories, while jet fuel prices have remained stable. With diesel stocks remaining tight, export demand, refinery maintenance and hurricane season present upside risks to prices. In contrast, jet fuel is well supplied, keeping a lid on prices. The outlook for both diesel and jet fuel has been complicated by US trade negotiations, with tariffs putting demand into question. What do recent travel warnings mean for jet demand? Why is the Caribbean pulling more US diesel? How will refinery closures on the US West Coast change jet flows? And what are the implications of the One Big Beautiful Bill on diesel and jet? Tune in as Jeff Mower, director of Americas oil news, digs into these and other questions with senior distillates reporters Aaron Tucker and Benjamin Peyton. Links: Jet Fuel USGC Prompt Pipeline Differential to NYMEX ULSD (NextGen MOC) ADIAS00 Jet Kero Los Angeles CA Pipeline vs NYMEX NY ULSD Mo01 AANVY00 Renewable Volume Obligation Current Year RVOR002 ULSD USGC Prompt Pipeline AATGY00 ULSD New York Harbor Barge AATGX00 ULSD No2 CARB Diesel Los Angeles CA Pipeline POAAK00  

Welcome to this episode of Visual Intonation, with Aaron Tucker, an acclaimed director, cinematographer, and producer whose vision has shaped some of the most powerful narratives in media today. Hailing from the vibrant DMV area, Aaron has built a reputation for weaving human-centered storytelling with high-end branded content. Whether crafting visually stunning ads for global giants like Amazon, Capital One, and Google, or directing cinematic moments for prestigious brands such as Hanifa and NASA, Aaron brings a rare blend of artistry and precision to every project. In this episode, we dive deep into the journey of a director who thrives on collaboration. With a knack for working across disciplines, Aaron excels in the art of producing results-driven content, consistently delivering on time and within budget. From leading dynamic teams through complex production processes to guiding clients through the intricate world of media investments, Aaron has mastered the delicate balance between creative vision and strategic execution. As an in-house media and production director, he continues to elevate productions from start to finish, ensuring that every project not only meets but exceeds expectations. Aaron's path to the spotlight wasn't a straight line. A graduate of the University of Maryland with a degree in finance, he began his career at Deloitte. But the call of creativity was too loud to ignore. Armed with a camera, a relentless drive to learn, and a self-taught mastery of photography, Aaron traded in the comfort of a corporate job for the uncertainty of a film career. He didn't just make a leap – he made a choice: the fear of failure wasn't an option. “Not making the change would be failing to believe I can do the thing I enjoy for a living,” he says. And it's that belief, that courage to pursue his passion, that's led him to become one of the most sought-after cinematographers in the business today. From the pages of Vogue and The New York Times to features on Complex, Aaron Tucker has left a lasting imprint on both the commercial and artistic worlds. The accolades are impressive, but it's the raw, human element in his work that truly sets him apart. As a 2023 HBO Short Film Awards finalist, Aaron's dedication to storytelling goes beyond the lens, transforming each frame into an experience that connects deeply with audiences around the globe. We'll hear about the driving force behind his vision and the invaluable lessons learned working with world-class clients. Whether it's shaping a brand's message or capturing a poignant moment on film, Aaron Tucker is more than just a director – he is a creative force redefining how we engage with content in today's fast-paced, ever-evolving media landscape. Tune in and get inspired by the journey of one of the most exciting voices in modern filmmaking. Aaron Tucker's Website: https://www.aaronmtucker.com/Aaron Tucker's Instagram: https://www.instagram.com/aaronmtucker/Aaron Tucker's LinkedIn: https://www.linkedin.com/in/aaron-tucker-8954243aSupport the showVisual Intonation Website: https://www.visualintonations.com/Visual Intonation Instagram: https://www.instagram.com/visualintonation/Vante Gregory's Website: vantegregory.comVante Gregory's Instagram: https://www.instagram.com/directedbyvante/ To support me on Patreon (thank you): patreon.com/visualintonations Tiktok: www.tiktok.com/@visualintonation Tiktok: www.tiktok.com/@directedbyvante

We talk to one of the members on the jury of Canada's biggest literary prize -- The Giller. Memorial University's Aaron Tucker is an author, poet, and creative writing professor. He's also on the jury for the Giller Prize. We spoke with him in studio this morning.

There's no shortage of creative people in Newfoundland and Labrador, and MUN's Creative Writing Program has a big reputation across the country. We spoke with Michelle Porter, an assistant professor of creative writing in the Department of English at MUN, and Aaron Tucker, a new professor in the creative writing program.

Aaron Tucker is a speaker and writer on finance and economics. Connect with Aaron: https://www.instagram.com/aaronwtucker/ Connect with Mikhail: https://www.instagram.com/miqk

Vince & J are joined by Bro2Bro first ever guest Aaron Tucker, who the Bros met in Atlanta while participating on Family Feud in front of Steve Harvey on the big stage. Also discussed were the tragic incident in Buffalo in early 2022, and Kevin Durant's trade value to the open NBA market.  #familyfeud #kevindurant #atlanta #buffalony  @jclarkreel @___vinceclark --- Send in a voice message: https://podcasters.spotify.com/pod/show/jclarkreel/message Support this podcast: https://podcasters.spotify.com/pod/show/jclarkreel/support

https://www.canr.msu.edu/packaging/How can we educate future packaging professionals in the art of sustainability? What is the first ever school of packaging in the USA? What are the two options for the school of packaging at MSU? https://www.tiktok.com/@pkgadvisor?https://www.tiktok.com/@corygated?https://ororapackagingsolutions.com/Looking to improve the sustainability of your packaging today? Check out: https://www.landsberg.com/ https://specright.com/ https://www.amazon.com/dp/1329820053/ref=as_sl_pc_qf_sp_asin_til?tag=corygated77-20&linkCode=w00&linkId=af630ccba1c41b01bca6fd0e0120360b&creativeASIN=1329820053

In our latest podcast episode, we feature Jeff Cohen's "The Question of the Befuddled Judge" from the May/June 2020 issue, read by the author. Jeff Cohen is the author of the humorous Double Feature and Aaron Tucker mystery series. As E.J. Copperman he writes the Haunted Guesthouse mystery series, the Agent to the Paws series, the Mysterious Detective series, and the Samuel Hoenig series.http://www.jeffcohenbooks.com/

Listen in as guests Justice Locke and Aaron Tucker have another in depth conversation about singleness with hosts Artez, Adrianna, and Sirgregory!

All original music from new artists including our featured artist for the week Corey Stewart and Aaron Tucker presenting the 'My favourite songwriter' segment!

DeviceTalks Weekly: Ep.6 – Hear about the Coventor Ventilator, COVID-19 and Q1 Earnings and MassDevice’s Medtech 100 Index In this week’s episode of DeviceTalks Weekly, Aaron Tucker of the Earl Bakken Medical Center shares the origin of the recently approved Coventor ventilator, which will be manufactured at-cost by Boston Scientific. We’ll also hear Abbott CEO Robert Ford comments from the company’s Q1 analyst call as we begin to dissect how the COVID-19 pandemic will impact medtech earnings. Finally, Danielle Kirsh, senior editor at WTWH Media, will share the origins of our new Medtech 100 Index, a powerful new tool for measuring how large medtech companies are managing in this new economy. Guests are: • Aaron Tucker, Lab Supervisor, University of Minnesota Earl E. Bakken Medical Device Center • Danielle Kirsh, Senior Editor, WTWH Media Don’t miss an episode! Subscribe to DeviceTalks Weekly on your podcast players.

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In this episode, Stephen Hurley speaks with Aaron Tucker about his latest book: "Y: Oppenheimer, Horseman of Los Alamos". The book takes us on a deep exploration of loves and moral dilemmas faced by the man who led the project that created the world's first weapon of mass destruction.Find out more about Aaron Tucker at: aarontucker.caDiscover Coach House Books at: chbooks.com/

After two years in the making, Paul Chafe and Aaron Tucker launched a team-built open access textbook this fall called "Write Here, Right Now: An Interactive Introduction to Academic Writing and Research." The interactive book serves an introductory writing course that seats over 1,000 students each year - and you can use it, too. In this episode, Chafe and Tucker explain why they opted to build a single, multimedia tool and how it became imperative to their team-based pedagogy. You can access the book through eCampus Ontario here: https://www.ecampusontario.ca/open_funding/write-right-now-interactive-introduction-academic-writing-research/ Transcript available here: https://goo.gl/omVJmk

In this episode, Terry Green welcomes Aaron Tucker(@chessbard) and Paul Chafe from Ryerson University. They discuss the development of the Department of English at Ryerson’s open textbook “Write Here, Right Now” designed for first year composition courses.

In this episode, Terry Green welcomes Aaron Tucker(@chessbard) and Paul Chafe from Ryerson University. They discuss the development of the Department of English at Ryerson’s open textbook “Write Here, Right Now” designed for first year composition courses.

Joey's (@jvishny) back hosting Bryan Painter (@bryan_painter) and Aaron Tucker (@atuck_FP) as we deconstruct the Red's business-like 2-nil result at St. Mary's. We pull out all the key storylines, look at individual performances back to front, provide our Seat Index ratings, then spend some energy thinking about Porto on Wednesday.   --- Send in a voice message: https://anchor.fm/talkonpodcast/message Support this podcast: https://anchor.fm/talkonpodcast/support

Bryan Painter (@bryan_painter) takes the reigns for Joey on this Champions League special, hosting Jeff Hallett (@jeff_hallett) in Denver, and a couple new contributor to Talk On, Aaron Tucker & James White. We celebrate the highs, dissect the lows from the 2-1 result at Hoffenheim, as well as our chances finishing out the return leg.  We look at individual player performances back to front, and preview what’s to come at the weekend vs. Palace.    **Thanks to you, Talk On is moving to its own channel! Subscribe to Football Purists Talk On in your podcast app** --- Send in a voice message: https://anchor.fm/talkonpodcast/message Support this podcast: https://anchor.fm/talkonpodcast/support

This week’s episode features Max Castillo! Max is a stand up comedian who performs around Los Angeles. Catch him in the show Group Shower at The Clubhouse in Los Feliz on August 10th at 8pm. You can also check out his blog, it’s all about golf! Max is hilarious and we have a great episode including lots of good news from his hometown Pensacola, Florida as well as the best animal corner I’ve seen in a minute. We’ve got:·     Afghanistan’s version of Sesame Street that introduced a young female puppet aimed at inspiring young girls. They recently introduced another character, her brother Zareek, as a way to illustrate gender equality between the two and show a relationship that demonstrates the importance of respecting women.  ·     It’s been a minute, but I found a Go Fund Me of the week! Aaron Tucker who was recently released from a two year jail sentence, became a hero when he jumped off of his bus on the way to a job interview to help with a very serious car accident. A stranger who saw the accident decided to set up a Go Fund Me for Tucker as a random act of kindness. ·     Stepney City Farm and it’s Furry Tales program is helping to support seniors with mental health issues by providing animal therapy. ·     Animal corner features a raccoon who’s head was fully stuck in tin can. He was rescued by New London Animal Control in Connecticut. ·     Pensacola has multiple good news stories! First Tee’s Goofy Golf just reopened after being closed for five years after hurricane damage. Sunday’s Child, a non-profit dedicated to supporting diversity and progressive acceptance in Pensacola just awarded 128,000 to five different non-profits in the area that are leaders in change, inclusion, and equality within the community.  Also, the police in Pensacola have started adding a little flair to their social media presence.                            Follow Max on Twitter @maxthefunnyguy                           Follow Max on Instagram @maxthefunnyguy                           Follow Hannah on instagram @cannongator                           Follow Hannah on twitter @cannongator See acast.com/privacy for privacy and opt-out information.