Open for the Climate

Deep Learning is one of the most prominent techniques in AI, with the potential to solve complex problems across various domains. This course provides a fundamental introduction to Deep Learning and its applications, with a focus on sustainable solutions. Topics Basics of Deep Learning Common algorithms and methods Applications across various industry sectors You will learn Understand the principles behind Deep LearningImplement basic Deep Learning algorithmsExplore applications for sustainable solutions Who is the course for?This course is designed for data scientists, engineers, and AI practitioners who want to learn the basics of Deep Learning and its applications in solving real-world problems. It is also ideal for professionals looking to implement AI solutions with a focus on sustainability. LanguageThe course is conducted in English. Additional informationThe course includes 15 hours of study and is offered for a fee.  

6G technology represents the next step in wireless communication and has the potential to revolutionize automation through faster and more reliable connectivity. This course explores the potential of 6G in automation processes and how the technology can contribute to sustainable development. Course content • Introduction to 6G technology• Applications in industrial automation• Benefits and challenges of 6G What you will learn • Understand the fundamentals of 6G technology• Analyze and implement 6G solutions in automation• Identify sustainable applications of 6G Who is the course for?The course is designed for engineers, researchers, and professionals in automation and telecommunications who want to explore and implement future 6G technologies. LanguageThe course is conducted in English. Additional informationThe course includes 15 hours of study and is offered for a fee.

Successful production of sustainable products requires advanced analytical techniques to ensure quality and efficiency. This course provides practical knowledge of methods for analyzing and supporting the production of products for the green transition. Course content Introduction to analytical techniques Quality assurance in production Analysis of sustainability and environmental impact What you will learn Use advanced analytical techniques in production processes Ensure quality and sustainability in production Identify areas for improvement to optimize production Who is the course for? The course is designed for quality managers, production leaders, and engineers working with sustainable production who want to deepen their knowledge of analytical techniques. LanguageThe course is conducted in Swedish and English. Additional informationThe course includes 60 hours of study and is offered for a fee.

Hur kan grön omställning göras så att resultatet är socialt önskvärt, miljömässigt -, samhälleligt - och ekonomiskt hållbart, samt etiskt acceptabelt? Själva uttrycket grön omställning leder lätt till ett snävt fokus på teknik och miljö. Det glöms att hållbar omställning syftar till att säkra framtida generationers möjligheter att leva sina liv inte bara i en god miljö, utan också i rättvisa och inkluderande samhällen och under hållbara ekonomiska förutsättningar. I den här kursen utforskar vi begreppet ansvarsfullhet och experimenterar praktiskt utifrån tankesätt och metoder som kommer ifrån EUs Responsible Research and Innovation (RRI) och innovationsforskningens Responsible Innovation (RI). Innehåll Ansvarsfull innovation och grön omställning EUs ansvarsfull forskning och innovation (RRI),  ingående delar och verktygslåda Hållbar utveckling och grön omställning Ansvarsfullhet och aktörer, intressenter samt användare Missions, framtider och grön omställning Du kommer få kunskap om Efter kursen kan du kartlägga området där den gröna omställningen skall ske, identifiera de intressenter som bör involveras den ansvarsfulla grön omställningsprocessen. Du kommer också att kunna identifiera arbetssätt som behöver förändras och kunna delta i utvecklandet av nya arbetssätt. Vem vänder sig kursen till? Den här kursen angår oss alla, oavsett yrkesroll och även som privatpersoner. Du bör vara nyfiken på samhällsutveckling mot hållbara samhällen i alla tre dimensioner. Du behöver inte ha några speciella förkunskaper förutom att du behöver vara beredd på att läsa engelska texter. Några som denna kurs kan vara särskilt lämpad för är strateger vid kommuner och regioner, utvecklare av teknik, organisationer eller samhällen, samt personer med ett samhällsengagemang som vill vara med och påverka utvecklingen.  Kursupplägg Kursen lanseras i maj och är en öppen kurs som kan genomföras online när som helst och inte kräver några förkunskaper. Kursen bygger på förinspelade filmer och poddar som vägleder och inspirerar inom varje kursområde. Dessa är kopplade till uppgifter och övningar du genomför och dokumenterar för ditt eget lärande. Språk Svenska

Den här kursen ger en inblick i batteriernas värld. Vi använder alla batterier varje dag, men vet du verkligen hur ett batteri fungerar, vad som finns i det, vad det är användbart för och hur forskare försöker förbättra dem för framtiden? I den här introduktionskursen kommer vi att berätta allt från batterigrunderna, till utvecklingen av litiumjonbatteriet, deras tillämpningar och krav, vilka typer av material som används för att bygga batterier, till vad som händer med ett batteri när det är slut. och hur batterier utvecklas för framtiden. Som deltagare i denna kurs har du helst någon form av teknisk bakgrund, troligen läst naturvetenskap på högskola eller till och med på högre utbildning, eller har erfarenhet av ett tekniskt yrke. Förhoppningen är att du efter kursen ska bli mycket mer medveten om batterivärlden, kraven, applikationerna och komponenterna i ett batteri, samt ett bredare perspektiv på hur denna viktiga teknik kommer att utvecklas under det kommande decenniet. Observera att videoinspelningarna i denna kurs är på engelska men är textade på svenska.

Batteries are key for electrifying transportation. They store the energy which is used to power the electric vehicles. This technology shift from internal combustion engines offers several advantages: reduced CO2 emissions, increased efficiency, lower operating costs, less noise. While electric vehicles have made significant advancement during the last decade, challenges remain regarding performance, ageing, safety, cost and sustainability. Moreover, the battery integration to the grid provides a new technology area where large gains can be made in terms of balancing power and use of back-up storage. R&D work in these fields are taking large steps forward at present, both in academia and in industry. This course provides an introductory overview of batteries and their applications in electrification. Participants will gain a fundamental understanding of battery chemistry, performance metrics, and various types of batteries commonly used in today's technologies. The course will also explore the role of batteries in the transition to a sustainable energy future, including their applications in electric vehicles, renewable energy storage, and their role in grid stabilization. Course period The course is given Spring 2025. Topics Module I: Energy storage Fundamentals of electrochemical energy storage, including batteries, supercapacitors, and fuel cells.  Battery chemistry, materials, cell and pack design, battery aging and safety.  Next-generation battery technologies and fuel cell systems, including hydrogen production and storage.  Module II: Vehicle-Grid Interaction The Swedish power system. EV charging infrastructure and equipment. Smart charging and V2G. Grid tariffs and balancing services.  Course structure The course is organized in two modules: Energy storage and Vehicle-Grid Interaction. Within each module, digital lectures will be offered, with possibility of interaction between lecturer and students, and among students. The students will respond to short quizzes to evaluate their understanding of the lectures.   You will learn By the end of this course, students will be able to: Explain the basic principles of battery operation and chemistry.  Understand the role of batteries in the electrification of transportation and energy systems. Analyze the challenges and opportunities associated with battery technology development. Understand potential risks and gains with battery interaction with the grid.     Who is the course for?  This course is primarily designed for  industry professionals who target to be involved in the development, manufacturing, or deployment of battery technologies, electric vehicles and power systems. The course is suitable for people with a background from science and technology education, and seeking to specialize in energy storage and electric vehicles. It also targets researchers working in the field of electromobility. Finally, policymakers and regulators interested in understanding the technical and economic aspects of energy storage and electric vehicle integration are also invited to participate. This is an introductory course, and it will show a path for life-long learning to build more in-depth knowledge in each concept introduced in this course. 

This course provides a glimpse into the world of batteries. We all use batteries every day, but do you really know how a battery works, what’s inside it, what it’s useful for, and how scientists are trying to improve them for the future? In this introductory course, we will tell you everything from battery basics, through the development of the lithium-ion battery, their applications and requirements, what kinds of materials are used to build batteries, to what happens to a battery when it’s finished its life and how batteries are being developed for the future. As a participant in this course, you ideally have some form of technical background, probably studied sciences at college or even in higher education, or have experience in a technical profession. It is hoped that after the course you will be much more aware of the battery world, the requirements, applications and components of a battery, as well as having a wider perspective of how this important technology will develop over the coming decade. It is expected that this course should take about 10-15 hours in total to complete.   The course is available from 30th of December 2022.

Batteries are a key component of future energy systems and electrification, but their production must become more sustainable. Manufacturing processes need to be optimized to minimize environmental impact while maintaining performance and safety. This course provides an introduction to battery production, covering everything from material selection to manufacturing techniques. Course content Materials and components for battery manufacturing Production processes and quality control Sustainability aspects in battery production What you will learn Understand the fundamental steps in battery manufacturing Identify sustainability challenges and propose improvements Analyze processes to ensure high quality and performance Who is the course for? The course is designed for professionals in the battery industry, materials researchers, and engineers working with production and sustainability issues. It is also suitable for those interested in learning the basics of battery manufacturing for future applications. Language The course is conducted in English. Additional information The course includes 60 hours of study and is offered for a fee.

This course emphasizes that systems-based changes are needed to achieve a sustainable world. In the past, dominant theories of change have neglected these complex conditions. In part, it includes the belief that change can be managed, planned, and controlled. This course suggests more contemporary theories where you are more inclusive, being many stakeholders and use fluid ways of creating change. Similar compositions of ideas have been tested in the honours track Change Maker Future Track at LU School of Economics and Management. At the end of the course, the participants will have a better chance of: a.       Understanding of the systemic nature of sustainability b.       Understanding of systems theory, and the concepts of complexity and wicked problems c.       Understanding of systems innovation and change d.       Having an overview of some tools for describing and analysing complex problems and contexts e.       Having an overview of contemporary theories of change f.        Having an in-depth understanding of the concept of Catalytic Leadership and Change