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Welcome to our series on how companies solve customer challenges through creative innovation. We spoke with Cloward H2O about how they work with its customers through the design process while providing expert direction based on years of experience and expertise. Start with a Project Vision: How Cloward H2O Moves Customers from Concept to Creation Welcome to our series on how companies solve customer challenges through creative innovation. We spoke with Cloward H2O about how they work with its customers through the design process while providing expert direction based on years of experience and expertise. EE in Conversation with: Corry Cloward, P.E., President/Principal Allen Clawson, P.E., Managing Partner/Principal Dan Aldred, Associate Principal/Senior Engineer Innovation Jun 29, 2026 Welcome to Entertainment Engineering magazine’s series where we ask companies to explain their approach to solving customer problems. We recognize the value of transferring technology and design innovations from one industry to another and believe that it all starts with those initial conversations. Here’s how Cloward H2O works with its customers. About Cloward H2O: Founded in 1977, Cloward H2O has specialized in recreational aquatics since 1985, developing a more diverse and wide range of aquatic expertise than any other firm. We are a global leader in aquatic engineering, designing world-class water parks, pools, fountains, interactive features, and marine life support systems. Cloward H2O has designed many of the world’s foremost aquatic leisure and marine facilities including the world’s deepest pool and other world’s largest and first of its kind facilities. We specify leading edge technology in design, filtration, chemical treatment, ozonating, pool edges and other integral components to each project we undertake. Perfecting all aspects of water, our end goal is to design safe, clean, and clear water for everyone to enjoy. That is Water Perfected. For this series, we spoke with Corry Cloward, P.E., President/Principal; Allen Clawson, P.E., Managing Partner/Principal; and Dan Aldred, Associate Principal/Senior Engineer. Ideas: Understanding the Challenge Customer approach and provided Information Customers usually come to us with a project vision or problem statement — often a napkin sketch or basic concept for an aquatic feature or water system. They typically share whatever data they have (site layouts, performance requirements, water quality or capacity goals, budget limits, timeline, and any regulatory requirements). In practice, the process is smoother when clients can clearly articulate success criteria (e.g. target flow rates, clarity, or occupancy goals) and provide complete site/operational data upfront. Knowing the end goals and constraints from the outset, along with any creative aspirations, helps our team focus quickly on the right solutions. When we decide to use a unique or innovative approach Cloward H2O turns to custom solutions for every project. A lot of competitors in the various industries Cloward H2O competes in more or less practice ‘cookie cutter’ approaches. The Cloward team starts from scratch every time applying proven engineering principles. Each is assessed for client goals and site constraints — developing a specialized design that aligns with the vision. In short, off-the-shelf methods don’t apply, we innovate every time. This is why Cloward H2O receives the world-first projects and very unique challenges other firms turn down, such as the deepest pool in the world, a giant waterfall volcano with slides through it, the first slides through a shark aquarium, and much more. The Cloward team starts from scratch every time applying proven engineering principles. Response policy and procedure Once a challenging need is identified, we define and validate the problem by confirming the data, required regulations, and site limitations. Then we assemble the right team. We engage cross-functional experts early on in the process and apply rigorous in-house standards at each design review. For example, we have evolved internal checklists and best-practice standards covering structure, piping, electrical, and safety. This ensures that every solution is technically sound and compliant before proceeding. Go/no-go decision factors We assess feasibility by balancing performance, cost, risk, and value. Key questions include: Can the solution meet technical and regulatory requirements? Does it fit the budget and timeline? What are the failure risks? Projects “demand precision” — if we cannot confidently achieve the objectives reliably, we go back to the client with the reality of physics. We often say we can engineer anything you want as long as it applies the laws of physics, and you understand the budget. Successful projects have a clear path to meeting the client’s needs sustainably; if the scope is unachievable (for example, due to an unrealistic budget or excessive technical risk), we make sure there is a resolution before moving forward. Innovation: Working Together Aligning expectations early Alignment starts with clear communication and shared metrics. We hold kickoff workshops or design charrettes so everyone (engineers, architects, owners) agrees on scope, key constraints, and success criteria. Cloward’s engineers, for instance, “review project designs as early as possible to ensure these don’t violate the laws of physics.” By addressing major assumptions up front and establishing measurable goals, we ensure priorities and desired outcomes are mutually understood from the start. . . . you might see civil, structural, mechanical, electrical, hydraulic, and controls engineers working alongside architects, landscape designers, and specialty consultants. Collaborating across disciplines Challenging projects typically involve multidisciplinary teams. In a large aquatic project, for example, you might see civil, structural, mechanical, electrical, hydraulic, and controls engineers working alongside architects, landscape designers, and specialty consultants. These teams collaborate closely through integrated design sessions and shared models. For instance, when designing a resort lagoon, Cloward H2O is included as the aquatic engineers, then there are always MEP engineers and geotechnical experts, and sometimes even specialists like wave-system or AV consultants. Each discipline’s input is coordinated through regular design reviews so that hydraulics, water treatment, structural layout, etc., all fit together smoothly. Turning constraints into opportunities We view constraints as design drivers , not roadblocks. For example, building in a desert climate forces us to innovate on water reuse and efficiency. Cloward has developed lagoon and waterpark systems that minimize evaporation, recycle water, and use energy-efficient pumps. Tight budgets or schedules also spur creative solutions, such as modular design phases or alternative materials that cut costs without sacrificing performance. In our experience, once the team treats each constraint (cost, time, regulations, space) as a catalyst, it often leads to simpler, more elegant solutions that add value. We view constraints as design drivers, not roadblocks. What drives creativity High stakes and novel challenges push the team to think outside the box. When a project has zero margin for error — like the 60-meter-deep dive pool where any failure would be catastrophic — the engineers responded with extensive simulation and testing to innovate safe solutions. Similarly, new guest experiences (like custom wave rides) or sustainability goals demand fresh thinking. Our engineers explore new technologies and creative configurations daily. Constantly exploring new technologies and ways to improve systems. Role of AI AI is an emerging tool in engineering, but it hasn’t gotten to the point where it is efficient, effective, or reliable for aquatic engineering processes. Therefore, Cloward H2O has not used AI for any process work yet. Cloward H2O is remaining apprised of new developments in the technology and testing features to stay on the curve when it becomes a viable ‘team player.’ On another note, many of the technologies we specify use data-driven simulation and IoT monitoring (e.g. sensors on pumps and filtration systems), and AI is enhancing predictive modeling and controls in aquatic systems. So, AI is being leveraged for analytics and system performance optimization/maintenance planning, in aquatic systems to better serve owners and operators. Execution: Mindset and Lessons Learned Maintaining communication and alignment Consistent and clear communication is key. Cloward emphasizes clear communication channels and a well-defined scope every time to keep everyone on the same page. We hold regular status meetings and design reviews with the customer and all stakeholders. Any changes or issues are documented and shared quickly. Keeping stakeholders updated at each milestone, we strive to keep the customer’s vision aligned with the project as it evolves. Resilience and momentum The toughest challenges often come from unexpected obstacles — unknown site issues, regulatory changes, or supply delays. Cloward’s strategy is to break big problems into smaller steps and apply proven methods for each. For example, we use a “cautious approach” and strict best practices in construction, so when problems occur, the team can fall back on tried-and-true engineering standards. Having a robust design review and issue-tracking process also helps the team quickly recover from setbacks. What makes a customer an effective innovation partner The best customers are engaged, transparent, and collaborative . They share complete information (site data, operational goals, constraints) and provide timely feedback. We are grateful to have clients and partners that go to bat for us and with us. Everyone has a part to play in these great projects. In other words, customers who actively participate in problem-solving — by asking questions, attending reviews, and trusting the engineering process — become true partners. This mutual commitment to the project’s success makes innovation smoother. Key team mindset for success A solutions-oriented, safety-first mindset underpins everything. Cloward’s engineers prioritize engineering quality and sustainability as central values. We approach projects thinking “long-term reliability” — focusing on safety and durability needs. The team’s attitude is one of rigorous practicality: we combine creativity with discipline, always validating ideas against standards and real-world constraints. This balanced, collaborative mindset (focused on clear water and clear outcomes!) is what ensures successful results in challenging projects. *Images courtesy of Cloward H2O. For information: Cloward H2O Read more about Cloward H2O >>> Previous Facebook LinkedIn Copy link Next

Japanese drama uses multiple Blackmagic cameras and DaVinci Resolve Studio for grading. Hi-Tech Cameras Used to Shoot TV Drama Japanese drama uses multiple Blackmagic cameras and DaVinci Resolve Studio for grading. Terry Persun Film and TV Jun 19, 2025 Blackmagic Design recently announced that the ABC TV and TV Asahi network drama series “It's a Wonderful Teacher!” was shot on Blackmagic URSA Mini Pro 12K and Blackmagic Pocket Cinema Camera 6K Pro digital film cameras. Additionally, DaVinci Resolve Studio was used for grading the series. “It's a Wonderful Teacher!” is a television drama produced by ABC TV starring Erika Ikuta. The series depicts the struggles of a young high school teacher, Rio Sasaoka, from Generation Z. In the show, Rio experiences so much stress in her second year of teaching that she considers quitting. However, by addressing challenges in modern education and building relationships with her students, she gradually grows as an educator. According to cinematographer Akiyoshi Konno, who was in charge of shooting the series, "Since the story is set in a high school, there are more than 30 cast members in the classroom scenes. Because of this, we used a multi camera setup. The main camera was the URSA Mini Pro 12K, while the B and C cameras were Pocket Cinema Camera 6K Pros. We divided the classroom in half, first shooting one side of the students and then moving to the other." Konno continued, "It's rare to be able to shoot a TV drama in RAW in Japan, but since the goal was to achieve a cinematic look, I decided to shoot in 24P Blackmagic RAW. I personally own Blackmagic Design cameras, so I was already familiar with their ease-of-use and excellent color quality. Additionally, for a multi camera shoot, the Pocket Cinema Camera was an affordable option, which was also a key factor in choosing it." The series was filmed using SIGMA 18-35mm and 50-100mm cinema lenses. Practical lighting techniques, where light sources are visible within the frame, were also incorporated into the production. DaVinci Resolve Studio was used for grading. After completing the first episode, Konno attended the grading sessions to discuss skin tone adjustments and color emphasis. “Additionally, I created a LUT combining ARRI and Kodak LUTs in DaVinci Resolve and used it during the shoot," said Konno. Konno said that one of his favorite features of Blackmagic Design cameras is their easy-to-use false color function. “Given the time constrains of a TV drama production, it was incredibly useful for fine tuning colors and monitoring lighting levels,” he concluded. For information: Blackmagic Design: https://www.blackmagicdesign.com/ DaVinci Resolve: https://www.blackmagicdesign.com/products/davinciresolve “It’s a Wonderful Teacher: https://japan-programcatalog.com/en/program/itsawonderfulteacher Previous Facebook LinkedIn Copy link Next

A Swiss startup — known for its process that makes glass permeable to telecommunication frequencies — requires the right components to create their revolutionary technology. Window Glass on Public Transportation Hinders Cell Service — Until Now A Swiss startup — known for its process that makes glass permeable to telecommunication frequencies — requires the right components to create their revolutionary technology. Edited by EE Staff Cool Stuff Apr 27, 2026 As the world becomes increasingly more reliant on wireless technology in both professional and personal applications, wireless users continue to face certain unique challenges. Making calls or using data indoors can still be a hassle in many locations. This is especially true for those using public transportation like trains, where window glass greatly impacts wireless signals. While wireless signals have become stronger and more efficient in recent years, they still struggle to penetrate building materials, including insulated glass. This makes it difficult, and in some cases impossible, to get service. Everyday clear glass can reduce wireless signals by up to 4 decibels (dB), while coated glass can reduce signals by as many as 30 dB (x1000). This is especially a problem in public transportation vehicles like trains, where passengers may struggle to receive wireless signals at all. It is an issue faced by commuters worldwide, for which Swiss startup nu glass has developed a cutting-edge solution. nu glass’s revolutionary glass cutting pattern allows wireless signals to better penetrate windows. The engraving can be completed on-site without having to remove windows. Unique Glass Cutting Pattern Most glass is insulated with a thin metal layer invisible to the naked eye. nu glass uses a patented laser technology to engrave a pattern on this layer, allowing for wireless frequencies to penetrate the glass. This treatment can increase indoor signal by up to 1000 times. The etching is nearly invisible, and it has no detrimental impact on the glass, which keeps its original protective properties. nu glass uses a portable system to complete the engraving process, allowing them to visit customers on site. The system can engrave glass while it’s in place, preventing the costly and time-consuming process of removing and reinstalling individual panes of glass. The process is fast and efficient and can be applied parallel to standard maintenance, allowing for trains to keep on their schedule and return to service on time with enhanced connectivity. nu glass’s system is currently used exclusively on trains but could potentially be used on glass installed in buildings or other structures. KNF diaphragm pumps play an integral role in nu glass’s cutting process. Multiple N 838 pumps are used in suction plates, which help adhere the system to the window during the engraving process. The pumps allow for the precision process to take place with minimal vibration. The N 838 is an outstanding gas transfer pump option. It offers a maximum flow rate of 34 l/min with an ultimate vacuum down to 100 mbar (abs.). Also available are a variety of motor options, including brushless DC motors for energy efficiency. The N 838 has excellent reliability and operates oil free, preventing media contamination. KNF’s N 838 diaphragm gas pump plays a vital role in nu glass’ engraving system, holding it in place during the precision etching process. While finding the ideal pump for their system was important, nu glass wanted to make sure they were working with a partner that shared their values. A focus on quality and sustainability were key components of those values. It was also important for nu glass, which began its life at the EPFL Lausanne, to work with a local company. This made working with KNF, with multiple facilities in nearby cities and a strong presence in the community, a natural choice. KNF has locations in 24 countries and a commitment to collaborative pump design, which allows each location to serve their communities directly. * Images courtesy of KNF. For more information: KNF nu Glass N838 Order a Sample Pump Previous Facebook LinkedIn Copy link Next

Students at California State University, Chico, gained hands-on experience and technical expertise that will empower them to excel in real-world engineering and innovation roles. Students Design Versatile and Scalable Vehicle Students at California State University, Chico, gained hands-on experience and technical expertise that will empower them to excel in real-world engineering and innovation roles. Shannon William Vlaming Cool Stuff May 4, 2026 Design The vehicle platform was all about simplicity and precision. Designed for easy scalability, it used a skid-steer configuration, controlling the left and right wheels independently for unmatched off-road maneuverability. A compact single-board computer handled the drives with analog velocity commands, while a separate computer processed high-level commands, seamlessly controlling the vehicle's actuators over a wireless network. Engineering an initial design was about laying a solid foundation for success by combining creativity, precision, and problem-solving in order to deliver a streamlined, responsive system ready to tackle any terrain with ease. The student engineering team consisted of Laine Wood, Lars Bartels, William Kettle, and Adam Garza. Joshua Mirand was the Capstone Design Program Coordinator who oversaw the project. Images courtesy of California State University, Chico. Handling Multiple Drives As in any engineering endeavor, challenges and obstacles arose throughout each process. The main challenge was expanding control of the drives from discrete signals on the vehicle controller to network-based control over the drives. The existing setup relied on individual signals for each drive, which limited the flexibility and scalability of the system. To achieve a more efficient and dynamic control mechanism, the team aimed to transition to a network-controlled system that handled multiple drives simultaneously with more precision. Every challenge encountered along the way became an opportunity to refine the team’s ideas, strengthen the overall design, and build resilience. By embracing obstacles as part of the journey, engineers set the stage for innovative solutions and lasting impact. ADVANCED Motion Controls played a critical role in the vehicle's design. To ensure the platform could scale easily, Digiflex® Performance DPCANTE-060B080 and DPRALTE-060B080 servo drives were chosen for their versatility. These drives come in a wide range of amperage ratings and form factors, which allowed the team to use the same motion and control system whether they scaled the platform up or down. Images courtesy of California State University, Chico. Working with the Digiflex amplifiers informed AMC was a great experience. The software and documentation were straightforward, which made the integration process smooth. The team was able to get each of the drives controlling the motors within a few hours of unboxing them, which led to an efficient and seamless integration. According to Joshua Miranda, Senior Capstone Design Program CoordinatorCollege of Engineering, Computer Science, and Construction Management, “The performance of these drives met our expectations, expanding our control capabilities and opened up a wide range of possibilities for future developments. We are excited about the potential these new platforms bring and look forward to further advancements.” Images courtesy of California State University, Chico. Moving forward, the California State University Chico Engineering team made significant progress by getting two more vehicles up and running. The first platform is now ready for testing and is better suited for indoor navigation, incorporating 4 Digiflex® Performance DPRALTE-020B080 servo drives that are also used in the Motion and Machine Automation Course at Chico State. The second platform is a smaller vehicle utilizing RC components. The team is currently looking at implementing AMC drives for traction control. For more information: Advanced Motion Controls California State University Chico Read more about vehicle projects >>> Previous Facebook LinkedIn Copy link Next

Baseball speed and spin rates will be integrated into app and live broadcasts and used for recruiting. Capturing Ball Speed and Spin Rates with Radar for Live Broadcasts Baseball speed and spin rates will be integrated into app and live broadcasts and used for recruiting. Joe Gillard Sports Jul 7, 2025 Stalker Sport, manufacturer of sports radar technology, has partnered with AWRE Sports, who specializes in multi-angle video, data analytics, and live streaming products for baseball and softball. The partnership will integrate Stalker’s speed and spin rate data into AWRE’s app and live broadcasts. Also from EE: Electric Race Car Uses 3D-Printed Components While speed is a well-known pitch measurement, spin rate is the measure the amount of spin, in revolutions per minute, of a baseball or softball, which can affect the trajectory of a given pitch. Stalker Sport’s Pro S line is a handheld sports radar capable of capturing this measurement in addition to speed. With the AWRE partnership, baseball teams using the Pro 3s, Pro 3, or Sport 3 Connect can connect their radar with AWRE’s system, allowing pitch data to be displayed during broadcasts and logged in AWRE’s charting system. AWRE has developed a number of sports apps for athletes, schools, sports facilities, and other users. “At Stalker Sport, we’re always looking for meaningful ways to enhance the value of our technology for players, coaches, and scouts,” said Greyson Jenista, Product Manager for Sports Tech at Stalker Sport. “Partnering with AWRE Sports allows us to bring our trusted data directly into dynamic video and live streaming environments, making performance insights more accessible and impactful than ever before.” How do sports radar guns work? Radar guns for measuring pitch speed rely on Doppler Radar. Microwaves are directed at the ball (or any moving object) and the change in frequency is measured after it bounces off. As explained by OSU professor Todd Thompson, a radar gun, such as a police radar, “bounces a pulse of microwaves (or infrared laser light) of a known wavelength off a car or truck,” and then it measures the wavelength that is reflected back towards the gun. “The Doppler shift gives the vehicle's speed.” Measuring spin rate is more difficult, and Stalker boasts having the only sports radar gun that can do it. According to the company, “measuring ball rotation requires longer tracking of the ball’s flight, followed by a complex calculation determining ball spin.” A tool for recruiting The data will also include automated highlight reels that can be shared with college recruiters and coaches, the company says. “We are constantly seeking opportunities to integrate verified data our clients desire with video. Integrating the Stalker Gun, already a very valuable tool, directly into the AWRE Charting app was a no-brainer,” said Chris Clark, CEO of AWRE. “Stalker plus AWRE now allows coaches and scouts to automatically gather, tag and organize video and verified data. This integration presents a significant advantage for coaches, scouts, players, and prospects alike.” “This integration is just the beginning,” continued Jenista. “We’re excited about the opportunities ahead to innovate alongside AWRE and continue pushing the boundaries of what’s possible in athlete development, recruiting, and fan engagement.” Source: Stalker Sport Previous Facebook LinkedIn Copy link Next