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🔋 Elevate Your Expertise with Our In-Depth Lithium-Ion Batteries Course! 🔋 Are you passionate about the future of energy storage and looking to deepen your knowledge? Our Lithium-Ion Batteries course is designed to provide you with a comprehensive understanding and practical skills to excel in this rapidly evolving field. Course Overview: 🔹 Deep Dive into Fundamentals: Understand the core principles of lithium-ion battery technology, including chemistry, physics, and materials science. 🔹 Advanced Applications: Learn about the latest innovations in battery management systems, energy storage solutions, and electric vehicle applications. 🔹 Sustainability and Safety: Explore best practices for safe handling, recycling, and the environmental impact of lithium-ion batteries. Why Enroll? Expert Instructors: Learn from leading industry experts and researchers who bring real-world experience and insights. Interactive Learning: Participate in engaging lectures, hands-on labs, and collaborative projects that reinforce your learning. Networking Opportunities: Connect with peers and professionals in the field, expanding your professional network. Certification: Earn a certificate of completion that will enhance your professional credentials and career prospects. Who Should Join? Engineers and Technologists: Enhance your technical skills and stay ahead in the competitive energy sector. Research Scientists: Gain cutting-edge insights to support your research and development projects. Energy Industry Professionals: Understand the critical role of batteries in modern energy systems and applications. Innovation Enthusiasts: Explore how lithium-ion technology is driving advancements in various industries. 🚀 Register Here: https://lnkd.in/dQkKd3Sr Take the next step in your career and become a part of the energy solution. Join our Lithium-Ion Batteries course and power up your future! Reach out to me for Group Bookings for Employee Training or student Curriculum courses to take additional benefits. Contact: rasika.kudal@valipod.com for queries and discounts Valipod Technologies Private Limited Baba Mulani Salma Mulani Amrutha Sunkari #BatteryTechnology #EnergyStorage #LithiumIon #ProfessionalDevelopment #SustainableEnergy #TechTraining

🌟 #JoinOurTeam at CIC energiGUNE! 🌟   We're excited to announce an opening for a #Postdoctoral #Researcher specializing in Metal #Anodes 🛠, becoming a part of our journey towards pioneering #energystorage solutions. 🔋   ▶The Role◀ You'll dive into the world of #lithium-metal #batteries (LMBs) 🔬, focusing on the development of safe and efficient lithium metal anodes. You'll collaborate closely with an industrial partner on a state-of-the-art project, pushing the boundaries of energy storage technology.   ▶Your Impact◀ 🔍Study Interphases and Interfaces on LMBs: Unlock the secrets of lithium metal batteries by studying their interphases and interfaces. ⚙️Understand Degradation Mechanisms: Use advanced characterization techniques to understand and mitigate the degradation mechanisms of lithium metal anodes. 🛡Develop Artificial SEI (ASEI): Innovate by developing artificial solid-electrolyte interphases to enhance battery performance and longevity. 📊Electrochemical Characterization: Apply your expertise in electrochemical characterization to analyze and improve LMBs.   ▶Why CIC energiGUNE?◀ 🚀Be at the Cutting Edge: Work on groundbreaking projects in energy storage. 🤝Collaborative Environment: Thrive in a multidisciplinary setting, where ideas and innovation cross-pollinate. 💡Make an Impact: Contribute to developing technologies that will power the future sustainably.   Apply now and be a part of our mission to lead the transition to #sustainable energy systems. Join Us! 🌍✨ https://lnkd.in/dNaDGKEq

#SystemsEngineering #SystemsThinking One of the foundations of my systems mindset is Systems Thinking. I am afraid too many people misunderstand it, or get too specific about it – mixing it with the purpose for its use and so a specific process. In my opinion / view it is a (deceptively) simple idea, framework for curiosity. That framework consists of looking at the “situation” as if it were a system, and applying properties seen in systems (such as context, emergence, structure, dynamics etc.) as a means to gain insight and understanding. [Key point – “as if it were a system” – some say systems are not real only constructs, other worry about whether something really is a system. But it doesn’t matter – you are just applying a useful framework, a series of lenses, to get a full view of the system]. Systems Thinking allows views that are different to normal habits – where we tend to not see the whole and the interactions. So many times when I interviewed potential engineers they said they had come to engineering by taking things apart to see how they worked. My mindset was more putting things together and so seeing how they worked – so wholes not parts How you do this Systems Thinking, and what you do with the insights, depends on both the specific situation (which system property most insightful), and why you are looking. This could be to understand a problem situation and decide how to fix, understand requirements for a new system / product / service (which is where I most used it in my professional life as an engineer), or simply curiosity (how do things work / connect). The basic idea and its techniques may seem (deceptively simple) but the insights (and so potential consequences) are often profound and maybe part of a very complex process to create a solution, fix a problem, improve a situation.  I was very glad when in 2014 a Royal Academy of Engineering report identified Systems Thinking as a key “Engineering Habit of Mind” – see thinking-like-an-engineer-full-report.pdf (raeng.org.uk) . Now I am retired it is my ambition to write a book called “Everything is a System” which will look at a range of things through the Systems Thinking framework of curiosity – hopefully to share interesting insights, and to illustrate the common properties of systems used in the Systems Thinking approach. I do need to do a lot of thinking about the structure of the book, and then do proper research / reading / investigation into it. So the book is not “imminent”! I will share more ideas later.

Ethical Considerations in Engineering In today's rapidly advancing technological landscape, engineers play a crucial role in shaping the world around us. However, with great power comes great responsibility. Ethical considerations are paramount in engineering, as the decisions made by engineers can have significant impacts on society, the environment, and individuals. In this blog post, we will delve into some of the key ethical considerations that engineers must navigate in their work. 1. Safety and Well-being: Engineers have a responsibility to ensure that their designs prioritize the safety and well-being of users and the public. This includes considering potential risks and implementing measures to mitigate them. Whether designing a bridge, a medical device, or a software application, engineers must prioritize safety above all else. 2. Environmental Impact: In an era of increasing environmental awareness, engineers must consider the environmental impact of their projects. This includes minimizing waste, reducing energy consumption, and designing sustainable solutions. Engineers should strive to create technologies that not only meet the needs of today but also safeguard the planet for future generations. 3. Social Justice: Engineering projects can have wide-ranging social implications, and engineers must consider the equitable distribution of resources and opportunities. This involves addressing issues of access, diversity, and inclusion to ensure that technology benefits all members of society, regardless of background or circumstance. 4. Privacy and Data Security: With the proliferation of digital technologies, engineers must grapple with issues of privacy and data security. From designing secure networks to implementing robust encryption algorithms, engineers play a vital role in safeguarding sensitive information and protecting individual privacy rights. 5. Transparency and Accountability: Transparency is essential in engineering, as it fosters trust and accountability. Engineers should be transparent about the potential risks and limitations of their designs, as well as any conflicts of interest that may arise. Additionally, they must be prepared to take responsibility for the consequences of their actions and decisions. Conclusion: Ethical considerations are at the heart of engineering practice. By prioritizing safety, sustainability, social justice, privacy, and accountability, engineers can create technologies that benefit society while minimizing harm. It is incumbent upon engineers to approach their work with integrity, empathy, and a commitment to ethical principles, ensuring that their innovations contribute to a better, more equitable world for all. #talentserve #TalentServe #ethicalhacking #technology #blog

Chemical Engineering Technology Review: Self-Driving Laboratories Self-driving laboratories represent a revolutionary leap in the field of scientific research and experimentation. These cutting-edge facilities leverage artificial intelligence, robotics, and advanced sensors to automate and streamline various laboratory processes, from sample preparation to data analysis. One of the most remarkable aspects of self-driving laboratories is their ability to significantly enhance efficiency and accuracy. By minimizing human intervention, these laboratories reduce the risk of errors and variability inherent in manual tasks. Moreover, they can operate around the clock, accelerating the pace of experimentation and enabling researchers to generate results at unprecedented speeds.They can be customized to accommodate a wide range of scientific disciplines, from chemistry and biology to material science and beyond. This adaptability makes them invaluable tools for academic institutions, pharmaceutical companies and research organizations seeking to explore diverse scientific questions.Furthermore,they have the potential to democratize access to scientific experimentation. By automating routine tasks, they free up researchers' time and resources, allowing them to focus on higher-level analysis and innovation. This democratization could foster collaboration and knowledge sharing across geographical and disciplinary boundaries, driving forward scientific progress. However, despite their many advantages, self-driving laboratories also pose certain challenges.Chief among these is the need for robust cybersecurity measures to safeguard sensitive data and prevent unauthorized access to automated systems. Additionally, the initial investment required to implement this technology is substantial, raising questions about affordability and accessibility for smaller research institutions and laboratories. While challenges remain, the potential benefits are immense, promising to revolutionize the way we conduct experiments and accelerate the pace of discovery across various fields of inquiry.

Ever wondered what truly defines an engineer? This Engineers' Day, we explored how both engineers and those outside the field perceive the role of engineers and what drives them. Non-engineers see them as problem-solvers and innovators, while engineers reveal their passion for creating and pushing limits. They are the dreamers who turn our ‘what ifs’ into ‘what’s next.’ At TEAL, engineers go beyond titles—they’re the visionaries who transform challenges into solutions and drive progress. Here’s to all the engineers who reimagine what’s possible and shape the world every day. Happy Engineers’ Day from everyone at TEAL! #EngineersDay #Engineers #Innovators #TEAL #TitanTeal

🔍✨ Showcasing the Individual Design Projects (IDP) at TU Delft 🌍📈   The Engineering Doctorate (EngD) program at TU Delft provides an exceptional platform for professionals and students to connect advanced research with real-world applications. A key component of this program is the Individual Design Project (IDP), where candidates work closely with industry partners to design, optimize, and implement innovative solutions.   Today, we're spotlighting Mahdi Mohajeri, a second-year trainee in PPED, who is working on the ReCOVR project including partners in ArcelorMittal, Dow, TNO and Shell to assess the potential of electrochemical separation of CO from N2 at a large industrial scale.   Here’s what Mahdi Mohajeri has to say about their experience so far: "My project focuses on exploring and designing a scalable process for the electrochemical separation of carbon monoxide from nitrogen. The aim is to develop a cost-effective and energy-efficient solution for industries requiring high-purity CO, particularly in applications like chemical synthesis and metallurgical processes. We’re combining theoretical models, advanced simulation techniques, and experimental data to validate the feasibility of the approach. To date, I’ve developed a simulation framework for evaluating key parameters such as pressure, flow rates, concentration, and reaction kinetics. I’ve also conducted a sensitivity analysis to identify an optimal operating window that improves the recovery and purity of CO. Additionally, I’ve evaluated the energy requirements, the number of cells needed, and the electrode area to ensure the scalability and efficiency of the process. This project has been incredibly rewarding, as it has deepened my understanding of process design and electrochemical engineering while honing essential skills such as problem-solving, data analysis, and project management. Collaborating with experts across multiple disciplines has enhanced my ability to work in interdisciplinary teams, communicate effectively with stakeholders, and contribute to innovative solutions from concept to reality. These experiences are invaluable for my career aspirations, particularly in advancing sustainable engineering, and process design, and will undoubtedly have a lasting impact on my professional growth." Looking forward, Mahdi Mohajeri is excited to continue developing practical solutions that address critical challenges in Sustainability in Industrial Processes. The skills gained in sustainable process design, electrochemical engineering, and interdisciplinary collaboration will undoubtedly have a lasting impact on my career goals and contribute to advancements in sustainable and energy-efficient process design.   Passionate about Sustainability in Industrial Processes? We are too! 🌍🌱 #EngD #TUdelft #Innovation #Chemicals #ChemicalEngineering #Electrochemical #IndividualDesignProject #Sustainability #ProcessDesign

We are thrilled to announce our collaboration with Gravitas Technologies on an industry-focused PhD project aimed at tackling key challenges in advanced materials manufacturing. Project Overview:  Our project is titled "Manufacturing Self-Healing Ceramics At Scale", is focused on developing and scaling up the production of cutting-edge ceramics with self-healing abilities for high temperature and extreme environment applications. This initiative will support industries such as aerospace, defence, energy, and nuclear by improving material longevity and performance in demanding applications. By leveraging the University of Wollongong's renowned expertise in materials research and state-of-the-art research facilities, alongside Gravitas Technologies’ industry leadership in advanced materials engineering and manufacturing, this project embodies a synergistic approach that bridges the gap between academia and industry. “This project allows Gravitas Technologies to enhance our advanced materials engineering and production capabilities, aligning with our mission to translate cutting-edge materials research into commercial success. By producing these innovative materials, Gravitas Technologies will play a crucial role in advancing technologies across various sectors, thereby strengthening our strategic impact and industry leadership.” – Sam Moricca This initiative under the academic leadership of Huijun Li represents an advancement in the University of Wollongong’s research portfolio in materials science and fosters meaningful collaborations with industry leaders. It reinforces the university’s position at the forefront of groundbreaking research and innovation in materials. Student Perspective:  “I am honored to be part of this project. Developing and scaling up the manufacturing of self-healing ceramics designed for extreme environments will have a positive impact across industries, and I am eager to contribute to these advancements.” – Trang Ngo Project Outcomes/Impact  For Gravitas Technologies, this project will underpin the development and scaling up manufacturing of advanced materials for critical applications. For the University of Wollongong, it represents a leap forward in materials research and offers valuable opportunities for industry collaboration. For Australia, this initiative will contribute to the nation's position as a hub for cutting-edge materials research and manufacturing. It will support local industries and create high-tech job opportunities. By fostering innovation in high-performance materials, Australia will strengthen its capabilities in strategic sectors crucial to national interests. A big thank you for the support behind the scene's Professor Honglin Chen and Simon Moss. Australian Government Department of Education, Australia's Economic Accelerator (AEA) and Science & Technology Australia.

🚀 Unlocking Job Opportunities for Young Engineers to Prove Themselves! 🌟 Hey LinkedIn fam! 👋 Once upon a time in the world of innovation and progress, there was a group of young, dynamic engineers ready to embark on their professional journey. They had the passion, the skills, and the fire to make a difference, but today there's one thing missing – the right opportunity. 🚀 👷♀️👷♂️ Meet me, an aspiring engineer with less than 3 years of experience, eagerly waiting to prove my mettle in the real world. Let's rewrite the story of young engineers waiting for opportunities into one of success, growth, and accomplishments. 🌟 Together, we can build a future where talent knows no bounds

🚀 Today we’d like to bring attention to another #inspiring story, this time from Vince Pizzoni FIChE CEng BSc FCMI AFWES FEI MSPE MCDI who has built a successful career in tech, becoming a Professor in Chemical and Environmental Engineering, with a background in process engineering. 🤩 Thank you Vince for sharing your inspiring journey with a super interesting #careerpath from studying Chemical Engineering, through a managerial career and working in 60+ countries globally, all the way to #tech, becoming a Professor in Chemical and Environmental Engineering and a mentor! ⭐ As Vince says while sharing great #careerintech tips in this blog: "Go for it! Exciting career, many challenges but you will grow as a person." 💯 At (Extra)ordinary Tech Stories, we believe that career options in tech and the journeys that lead to them are often surprising, exciting and non-linear. People enter tech from a range of personal and professional backgrounds and can have hugely successful #careers both in STEM and non-STEM related roles. If you’d like to learn about more #careersintech stories, check out the (Extra)ordinary Tech Stories website https://lnkd.in/ece5rsSz Please help support our mission by: - following (Extra)ordinary Tech Stories on LinkedIn - getting in touch in comments or via DM if you'd like to share your story - nominating someone you know to tell their career in tech story - helping us spread the message by sharing this post with your networks. Thank you! 🙏 #techindustry #careerstories #extraordinarytechstories #careerinspiration #engineer #engineeringcareers #stem #stemcareers https://lnkd.in/gjUevkX7