Jordan & Skala Engineers’ Post

Engineering Needs More Futurists A quick glance at the news headlines each morning might convey that the world is in crisis. Challenges include climate-change threats to human infrastructure and habitats; cyberwarfare by state and nonstate actors attacking energy sources and health care systems; and the global water crisis, which is compounded by the climate crisis. Perhaps the biggest challenge is the rapid advance of artificial intelligence and what it means for humanity. As people grapple with those and other issues, they typically look to policymakers and business leaders for answers. However, no true solutions can be developed and implemented without the technical expertise of engineers. Encouraging visionary, futuristic thinking is the function of the Engineering Research Visioning Alliance . ERVA is an initiative of the U.S. National Science Foundation ’s Directorate for Engineering , for which I serve as principal investigator. IEEE is one of several professional engineering societies that are affiliate partners. Engineers are indispensable architects Engineers are not simply crucial problem-solvers; they have long proven to be proactive architects of the future. For example, Nobel-winning physicists discovered the science behind the sensors that make modern photography possible. Engineers ran with the discovery, developing technology that NASA could use to send back clear pictures from space, giving us glimpses of universes far beyond our line of sight. The same tech enables you to snap photos with your cellphone. As an engineer myself, I am proud of our history of not just making change but also envisioning it. In the late 19th century, electrical engineer Nikola Tesla had envisioned wireless communication, lighting, and power distribution. As early as 1900, civil engineer John Elfreth Watkins predicted that by 2000 we would have such now-commonplace innovations as color photography, wireless telephones, and home televisions (and even TV dinners), among other things. “If we are going to successfully tackle today’s most vexing global challenges, engineers cannot be relegated to playing a reactive role.” Watkins embodied an engineer’s curiosity and prescience, but too often today, we spend the lion’s share of our time with technical tinkering and not enough on the bigger picture. If we are going to successfully tackle today’s most vexing global challenges, engineers cannot be relegated to playing a reactive role. We need to completely reimagine how nearly everything works. And because complex problems are multifaceted, we must do so in a multidisciplinary fashion. We need big ideas, future-focused thinking with the foresight to transform how we live, work, and play—a visionary mindset embraced and advanced by engineers who leverage R&D to solve problems and activate discoveries. We need a different attitude from that of the consummate practitioners we typically imagine ourselves to be. We need the mindset of the futurist. Futu

Have you met Isabel Van Hul yet? Our outstanding Design Engineer at ITB. 🏗️💡 In her role, she is responsible for creating the electrical plans for various projects. As a child with a passion for drawing, it was clear that she was destined to study architecture. 🎨🏞 Even during her studies she was the only girl in a class full of men. Her mantra? “As long as I get the same opportunities, I have no problem working in a man's world." She firmly believes that companies should continue to actively attract more women, as women are just as valuable as men. 💪 Ready to delve into her narrative? Hit the link in the comments and be a part of the evolution! 🌟✊ #ITB #Careers #womenintechnology #womenindustry #Jobs #Vacancies #CompanyCulture #equalityatwork #vincienergies #womenintech #PoweredByYourEnergy

It's been almost two years since I joined Summum Engineering and I am not planning to leave it. So the post is not about that ;). From today onwards Summum Engineering would move forward as a co-operative, meaning I would be co-owner of the company, alongside Diederik Veenendaal, Rik Rozendaal and Alessio Vigorito. Most people move to a new country, because there's something which they like about it. For me it was just the kind of work which Diederik Veenendaal and his team did at Summum Engineering and his very impressive PhD at Block Research Group, ETH Zurich. I am very glad that I believed in him and took this step. Apart from the funky and awesome projects which I get to do. Something which I value as well, are the core ethos and beliefs of each and every team member. There's always a constant collective drive towards engineering for a sustainable and greener built environment. Everyone is motivated to improve oneself on a professional level, as well as also making sure to support each other, creating a healthy working environment. There's a long list of other things which I like about being at Summum but I'm gonna keep that for later :) So yes, very excited to see where this change takes us! I am pretty sure towards engineering of more timber gridshells, bamboo domes, bridges made out of reused materials, lightweight roofs and much more ;) Exciting times ahead! PS: The attached image is a bit unrelated to Summum Engineering, but many personalities pictured there are the reason behind why I am a structural engineer today :)

"📝 Importance of Concrete Temperature Monitoring 📊💡 "Ensuring the Strength and Durability of Your Construction" 🏗️ Structural Integrity: Concrete temperature monitoring is crucial during the curing process to ensure the structural integrity and long-term durability of the construction. 🌡️ Hydration Process Impact: Temperature variations can impact the hydration process of concrete, influencing its strength and overall quality. ⚙️ Risk Mitigation: Extreme temperatures, whether too high or too low, can lead to issues like thermal cracking, reduced strength, and compromised durability. 🔄 Timely Adjustments: Monitoring concrete temperature allows for timely adjustments, such as using temperature-controlling measures or modifying the mix design, to optimize the curing conditions and enhance the final product's performance. 📡 Real-time Data with SmartRock: SmartRock sensors by Giatec | Smart Construction Solutions play an important role in concrete temperature monitoring by providing real-time data. 📊 Remote Accessibility: These wireless sensors are embedded in the concrete during the pouring phase, allowing continuous temperature monitoring throughout the curing period. The data collected by SmartRock sensors can be accessed remotely, enabling construction professionals to make informed decisions promptly. This technology enhances efficiency, reduces the risk of temperature-related issues, and contributes to the overall quality and longevity of the concrete stru🌟 Track the Trend: Stay ahead of the curve and explore the possibilities, follow me on Linkedin.com/in/psmahesh ⛷❄🏂🌄 "Credits: 🌟 All rights and credits for the content presented are reserved for their respective owners. 📚 For attribution or content removal requests, please contact me. 📩 Only used for Academic Learning/Sharing good work purpose, giving due credit to respective owner 📚 Thank you, and God bless. 🙏"cture.

The project "Genetic Optimization" was carried out as part of the Computational Design seminar during my masters at Institute for Advanced Architecture of Catalonia. The project is focused on exploring the design optimization process through Wallacei, a design optimization plugin for Grasshopper. The design of the project aims to purify rainwater through biodegradable materials, therefore, the form of the canopy is based on rainwater collection and production of renewable solar energy while providing shade to the surroundings in which it is placed. The objective is to create a sustainable solution to conserve water, generate electricity and enhance the site usage. Keeping these objectives in mind, the parameters for optimization are set to optimize the top and and base of the canopy for receiving maximum radiation and collecting maximum rainwater, while the placement on site is optimized to providing maximum shading on site during peak sun hours. The final optimized result presents a complete solution to all these objectives. Group members: Rocío Sagástegui Vázquez, Yang Xiao Animation credits: Yang Xiao

Hola Mechies👋👋!!! Well there are Back to Back surprises for you🙌🙌!!! IMechE is being Santa in Summer🤣❤!!! There's an upcoming challenge for innovation. Dive into the Deep Sea of Engineering. Unleash your Brilliance🧠 and devise an idea💡to enhance the condition of the Energy and Related Sectors. How can we convert energy from our mechanical form to the most used electrical form🤔🤔??? Include the concept of Energy Harvesting and combination from different sources.💪💪💪 Make your design Sustainable 🌳🌳🌳. Develop a Small Scale model of your innovation. You may use additional equipment to help you transfer your thoughts to us. Use whatever you know🫵❤🔥. Give it your BEST💪🍀 The design challenge competition focuses on revolutionizing energy harvesting from mechanical sources for localized applications, specifically targeting mobile and portable devices. Engineers are tasked with creating compact and robust systems that efficiently capture and convert mechanical energy into electrical power. The integration of everyday objects/lifestyle offers opportunities to harness ambient mechanical energy, like body movement or vibrations, for sustained power generation. Designs must strike a delicate balance between size, weight, and performance to seamlessly incorporate into various devices without compromising user experience. Embracing innovative materials and advanced engineering techniques is essential to unlock the full potential of mechanical energy harvesting, paving the way for self-sustaining, eco-friendly power solutions in the modern world.  Topic: Harvesting Energy Challenge: Powering the Future with Mechanical Ingenuity  Submission Deadline: 8th April, 2024  Team size: 2-3 Objective: The primary goal of this competition is to develop compact and robust systems capable of capturing mechanical energy and converting it into electrical power effectively. Participants will explore integration with everyday objects, such as clothing or accessories or any other useful portable devices, to harness ambient mechanical energy for sustained power generation. Designs must strike a balance between size, weight, and performance to ensure seamless incorporation into various devices without compromising user experience. Benefits: Showcase your talent and expertise in energy harvesting and sustainable design. Network with industry professionals and potential collaborators. Gain recognition and exposure for your innovative solutions. Contribute to the advancement of self-sustaining, eco-friendly power solutions for the modern world. Opportunities for career development and collaboration on future projects.

𝙏𝙝𝙞𝙣𝙜𝙨 𝙮𝙤𝙪 𝙣𝙚𝙚𝙙 𝙩𝙤 𝙠𝙣𝙤𝙬 𝙖𝙗𝙤𝙪𝙩 𝙙𝙚𝙨𝙞𝙜𝙣 𝙤𝙛 𝙧𝙚𝙨𝙚𝙖𝙧𝙘𝙝 𝙛𝙖𝙘𝙞𝙡𝙞𝙩𝙞𝙚𝙨! Thousands of public and private sector scientists and engineers from industries such as pharmaceutical, biomedical, manufacturing, and biotechnology use all types of laboratories and instruments to advance the frontiers of knowledge. Research facilities present a unique challenge to designers with their inherent complexity of systems, health and safety requirements, long-term flexibility and adaptability needs, energy use intensity, and environmental impacts. There are many different types of research facilities which can be classified into two major groups, which are then further categorized by type and by sector: 1. Animal research facilities : specially designed building types that accommodate exquisitely controlled environments for the care &maintenance of experimental animals. 2. Research laboratories : complex, technically sophisticated, and mechanically intensive structures that are expensive to build and to maintain. Therefore, the design, construction, renovation of such facilities are a major challenge for all involved. Types : (a) Wet Labs : are unique in that they must accommodate simultaneous and separate ventilation &utility connections at individual lab modules to ensure both the reliability and accuracy of results as well as occupant safety throughout the space. Utility connections in Wet Laboratory space types can include vacuum, pneumatic supply, natural gas, O2 and CO2, and distilled water. (b) Dry Labs : are designed to accommodate project-specific work patterns &scientific equipment. These spaces are usually computer intensive, with significant requirements for electrical &data wiring. Their casework is mobile; they have adjustable shelving &plastic laminate counters. Recirculated air is sufficient. Dry lab construction is, in fact, very similar to office construction. A key difference is the substantial need for cooling in dry labs because of the heat generated by the equipment. Sectors : (a) Academic laboratory - include both research &teaching labs. (b) Government laboratory - focus solely on research. (c) Private laboratory - The competition to keep top researchers &the need to develop more discoveries each year are key attributes in the design strategy. This sets apart the private sector companies where they invest &forecast the changing trends. Private-sector companies are more likely than others to invest in technical support for the scientists' work. Most private corporations tend to implement extensive facility management to maintain the facilities & important to minimize any downtime for a specific researcher & to keep all researchers happy. Initial cost is always a consideration, but long-term operational costs and ROI are also key to the design &operation of laboratory facilities. Research facilities are essential to the discoveries &breakthroughs of yesterday, today, &tomorrow. Ref: WBDG

Why Nature has the best engineering in the world? Here are a few points to consider: Efficiency: Nature's designs are incredibly efficient, optimizing materials and energy usage to achieve maximum results with minimal resources. Adaptability: Natural systems evolve and adapt over time to changing environments, showcasing unparalleled resilience and flexibility in design. Sustainability: Nature operates on sustainable principles, with designs that promote longevity and harmony within ecosystems, unlike many human-made solutions. Complexity: From the intricate structure of a leaf to the interconnectedness of an entire ecosystem, nature's engineering displays unmatched complexity and sophistication. Bioinspiration: Many human innovations draw inspiration from nature, such as Velcro mimicking burrs or the design of bullet trains inspired by the beak of a kingfisher, further proving the superiority of nature's engineering. Holistic Design: Nature's engineering considers the whole system, with each component serving multiple functions and contributing to the overall balance and functionality of the ecosystem. Resilience: Natural systems have evolved mechanisms to recover from disturbances and maintain equilibrium, showcasing resilience that is unparalleled in human engineering. All in all, nature's engineering serves as a timeless source of inspiration and a model for sustainable, efficient, and resilient design principles. Disclaimer: I don't own this video, all rights/credit go to the owner (unknown) PS - if you liked this content, please consider following me here and possibly subscribing to my Substack/Email Newsletter where I share more inspirational and educational content. Simply text MINDFUL to 33777. Thank you!

1/2:Article Title: “The Human Spirit and Infrastructural Dynamics: Lessons from Pyramids and Beyond” Thermodynamic Principles Applied in Ancient Engineering • Ancient engineers intuitively applied principles of thermodynamics, such as heat management and energy efficiency. • The orientation and design of the pyramids optimized thermal regulation, contributing to their longevity. • Understanding these principles helps bridge the gap between ancient and modern engineering practices. Modern Examples and Comparisons Analysis of Modern Tall Structures and Their Thermodynamic Considerations • Modern skyscrapers and infrastructure projects incorporate advanced thermodynamic principles for energy efficiency and sustainability. • Examples include the Burj Khalifa, which utilizes cutting-edge materials and design strategies to manage heat and structural loads. • Comparing these structures with ancient pyramids highlights the continuity of thermodynamic applications in engineering. Comparison with Ancient Constructions in Terms of Energy and Material Management • Both ancient and modern constructions emphasize efficient use of materials and energy. • Modern advancements allow for the development of lighter, stronger materials that enhance structural performance. • Historical insights inform contemporary practices, fostering innovations in material science and construction methods. Technological Advancements in Handling Weight and Infrastructure Dynamics • Innovations such as high-strength steel, reinforced concrete, and computer-aided design (CAD) revolutionize how we handle structural loads. • Modern machinery and construction techniques enable the creation of taller, more complex structures. • These advancements reflect the cumulative growth of human knowledge and technological capabilities. Courtesy to Priya Waller Media and Communications Experts UK 🇬🇧