Vill du vara med och forma framtidens hållbara kommuner? Söker du mer kunskap för att driva ett integrerat hållbarhetsarbete inom den kommunala sektorn? Den här kursen ger dig både teoretiska insikter och praktiska tips för att förstå och implementera hållbarhetsstrategier i den kommunala sektorn. KursperiodKursen ges under en flexibel period där du kan ta del av materialet i din egen takt. Kursens innehållKursen syftar till att bidra med förståelse för hur hållbarhetsarbete kan integreras i kommunala organisationer och processer. Du kommer att lära dig mer om både interna och externa faktorer som påverkar hållbarhetsarbetet, och hur kommunala organisationer kan balansera intern hållbarhetsstyrning med extern styrning genom samverkan med andra aktörer, i syfte att påverka omställningen till ett mer hållbart samhälle. Genom att fokusera på både de interna och externa förutsättningarna för hållbarhetsstyrning, bidrar kursen med perspektiv och kunskap kring kommunens roll för hållbar utveckling utifrån ett mer holistiskt perspektiv. Kursens uppläggKursen ges helt på distans och består av förinspelade föreläsningar som du kan ta del av när det passar dig, resurstillfällen i realtid, seminarier samt skriftliga uppgifter. Seminarierna uppmuntrar till erfarenhetsutbyte mellan kursdeltagarna. Varje seminarium följs av en individuell reflektion. Kursen avslutas med en självständig individuell analys där du kopplar kursens innehåll till din egen kommunala verksamhet. Detta arbete redovisas både skriftligt och muntligt vid kursens avslutning. Du kommer få kunskap omEfter avslutad kurs kommer du att ha utvecklat färdigheter och kunskaper som direkt kan tillämpas i din yrkesroll eller i den organisation du verkar i. Vem vänder sig kursen till?Kursen riktar sig till dig som arbetar i en ledande position, i ett hållbarhetsteam eller är nyfiken på hur kommuner kan bidra till hållbar samhällsutveckling. Ta chansen att utveckla din kompetens för att bidra till ett integrerat hållbarhetsarbete i kommuner!När du ansöker till kursen måste du visa att du har grundläggande behörighet. Om dina gymnasiebetyg inte redan finns på antagning.se, behöver du ladda upp din gymnasieexamen eller motsvarande där när du ansöker. På kursens sida på liu.se kan du se vilka behörighetskrav som gäller för kursen.

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.

Edge computing enables faster and more energy-efficient data processing directly at the source. In robotics, this can lead to improved performance and sustainability. This course introduces the concept of edge computing and its applications in robotics. Course content • Fundamentals of edge computing• Applications of edge computing in robotics• Energy-efficient solutions for data processing What you will learn • Understand the principles of edge computing• Implement edge computing in robotic systems• Optimize data processing for energy efficiency Who is the course for?The course is designed for engineers, developers, and technicians working with robotics, IoT, and data processing who want to implement energy-efficient solutions in their projects. LanguageThe course is conducted in English. Additional informationThe course includes 15 hours of study and is offered for a fee.

Global digitalization generates vast amounts of data, making data-driven decision-making essential for success in many industries. The ability to transform data into actionable insights can enhance business strategies, operational efficiency, and sustainability efforts. This course provides an introduction to data analysis and decision-making using predictive models and machine learning. Participants will be introduced to methods and tools for analyzing data, building predictive models, and making strategic decisions based on data-driven insights. Course content • Fundamentals of data-driven decision-making• Introduction to machine learning and predictive analysis• Tools and methods for data analysis and modeling What you will learn • Understand the basics of data-driven decision-making and its applications• Analyze data using predictive models and machine learning techniques• Develop strategic decisions based on data analysis Who is the course for? The course is designed for business leaders, managers, researchers, and professionals who want to use data-driven analysis to improve business strategies and drive sustainable development. It is also suitable for technicians and analysts looking to build their skills in data analysis and decision-making. LanguageThe course is conducted in English. Additional informationThe course includes 80 hours of study and is offered for a fee.

The green transition requires social acceptance and collaboration between different groups in society. In the multicultural north, specific challenges and opportunities arise from diverse cultural perspectives and values. This course explores strategies to promote acceptance and cooperation. Course content Social and cultural dimensions of the green transition Synergies and conflicts in multicultural societies Strategies for building social acceptance What you will learn Understand the social aspects of the green transition Identify and manage potential conflicts Develop strategies to strengthen social acceptance Who is the course for? The course is designed for urban planners, researchers, and project managers working with sustainable development in multicultural societies. LanguageThe course is conducted in English. Additional informationThe course includes 40 hours of study and is offered for a fee.

Efficient energy use is a crucial part of sustainability efforts. Accurate flow measurement of liquids and gases can optimize energy consumption and streamline processes. This course teaches techniques and tools for implementing flow measurement in various applications. Course content Fundamentals of flow measurement technologyEnergy optimization through flow analysisPractical applications in industry and energy sectors What you will learn Use flow measurement to optimize energy consumptionEvaluate and implement measurement tools for different processesUnderstand how flow measurement impacts sustainability and energy efficiency Who is the course for? The course is designed for engineers, technicians, and production managers working with process optimization and energy efficiency in industrial settings. LanguageThe course is conducted in Swedish. Additional informationThe course includes 30 hours of study and is offered for a fee.

Sustainable water management and resource recovery are central to the green transition. Source-separating wastewater systems enable efficient nutrient recovery and reduce the environmental impact of wastewater management. This course provides an introduction to concepts and techniques for implementing such systems. Course content Principles of source-separating wastewater systems Techniques for nutrient recovery Sustainable water management What you will learn Understand the basics of source-separating wastewater systems Analyze and design systems for sustainable water management Identify opportunities for resource recovery in wastewater management Who is the course for? The course is designed for engineers, urban planners, and professionals in water and waste management who want to implement sustainable solutions for future communities. LanguageThe course is conducted in Swedish. Additional informationThe course is offered for a fee.

Integrated circuits are central to many of today’s technologies, and their design can significantly impact energy efficiency and sustainability. This course introduces techniques for designing integrated circuits with a focus on environmental aspects. Course content Basic design principles for integrated circuits Energy-efficient solutions for electronics designSustainability in integrated circuit development What you will learn Design integrated circuits with a focus on energy efficiency Implement sustainable solutions in the electronics industry Understand the connection between circuit design and environmental impact Who is the course for? The course is designed for electronics developers, engineers, and technicians working with circuit design who want to focus on sustainability and energy efficiency in their solutions. LanguageThe course is conducted in Swedish and English. Additional informationThe course 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.

Chemical processes play a crucial role in the green transition, from producing sustainable materials to reducing emissions. This course provides a fundamental understanding of chemistry and its application in sustainable solutions. Course Content Basic chemistry for the green transition Sustainable chemical processes Environmental and energy aspects of chemical applications What You Will Learn Understand the basics of chemistry related to the green transition Analyze and optimize chemical processes for sustainability Identify applications that minimize environmental impact Who Is the Course For? The course is designed for chemists, process engineers, and other professionals in the chemical industry who want to understand and apply sustainable chemical processes. Language The course is conducted in English. Additional information The course is offered for a fee.

Electric drive systems are central to the transition toward sustainable transport and industrial solutions. Efficient design and implementation of drive systems can reduce energy consumption and improve performance. This course covers the fundamentals of designing and optimizing electric drive systems for various applications. Course Content Principles of electric drive systems Design for energy efficiency and performance Applications in industry and electric vehicles What You Will Learn Design electric drive systems for different applications Optimize systems for energy efficiency and sustainability Analyze challenges and opportunities in electric drive systems Who Is the Course For? The course is tailored for engineers and developers in the transport and manufacturing industries, as well as professionals working with the electrification of vehicles and industrial systems. Language The course is conducted in English. Additional information The course includes 65 hours of study and is offered for a fee.

Deepening knowledge of advanced techniques and processes for fossil-free steel production is essential for taking the next step toward a carbon-free industry. This course focuses on optimizing and implementing innovative solutions in the manufacturing process. Course Content Advanced techniques for fossil-free steel production Implementation of hydrogen-based processes Efficiency and optimization in steel manufacturing What You Will Learn Understand and apply advanced processes for fossil-free steel production Optimize manufacturing processes to reduce energy consumption Contribute to the transition toward a sustainable steel industry Who Is the Course For? The course is designed for professionals in the steel industry, researchers, and technical specialists with basic knowledge of fossil-free manufacturing who want to deepen their understanding of advanced techniques. Language The course is conducted in Swedish and English. Additional Information The course includes 60 hours of study and is offered for a fee.

The steel industry is one of the largest sources of carbon dioxide emissions globally. With the introduction of fossil-free manufacturing processes, the industry can take significant steps toward a sustainable future. This course introduces the fundamentals of fossil-free steel production, focusing on techniques and processes to reduce climate impact. Course content Introduction to fossil-free steel production Use of hydrogen in steel manufacturing Climate impact and sustainability aspects What you will learn Understand the basics of fossil-free steel production Analyze the climate impact of traditional steel manufacturing Identify key factors for implementing fossil-free processes Who is the course for? The course is designed for engineers, technicians, and decision-makers in the steel and manufacturing industries. It is also suitable for researchers and students interested in understanding and working with fossil-free technology in steel production. Language The course is conducted in Swedish and English. Additional information The course includes 60 hours of study and is offered for a fee.

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.

The green transition requires support and participation from the entire society to be successful. Citizen dialogue is a crucial part of building understanding, trust, and acceptance for necessary changes. This course explores methods and tools for conducting effective dialogues and engaging citizens in the transition process. Course content Principles of citizen dialogue Methods for engaging diverse target groups Case studies from successful transition projects What you will learn Understand the importance of citizen dialogue in the transition process Plan and conduct dialogues that engage and inform Evaluate the impact of citizen dialogue on the transition process Who is the course for? The course is designed for civil servants, policymakers, and urban planners working with sustainability projects and citizen engagement. It is also relevant for communicators and project managers seeking to improve their ability to lead dialogues related to the green transition. Language The course is offered in Swedish. Additional information The course includes 60 hours of study and is offered for a fee.

Freight transport plays a crucial role in Sweden's economy but is also a major source of greenhouse gas emissions. To meet climate goals, the transport system must transition to greener alternatives, including electrification, biofuels, and hydrogen. This course provides an overview of technical solutions and strategies for reducing the environmental impact of the transport sector and supporting a sustainable transition. Course content• Electrification of freight transport• Use of biofuels and hydrogen• Infrastructure and policy challenges for green transport What you will learn• Identify key technologies for green freight transport• Analyze policy challenges and potential solutions• Develop strategies for implementing sustainable transport solutions Who is the course for?The course is designed for transport and logistics managers, engineers, policymakers, and other professionals seeking to understand the technical and policy aspects of green freight transport. It is also suitable for those working with sustainability strategies within the transport sector. LanguageThe course is conducted in Swedish. Additional informationThe course includes 80 hours of study and is offered for a fee.

The global demand for battery metals is rapidly increasing, posing both environmental and economic challenges. Traditional metal extraction methods are resource-intensive and often have negative environmental impacts. Hydrometallurgical extraction offers a sustainable solution by using less energy and enabling the recovery of valuable metals from both primary and secondary resources. This course introduces participants to processes and techniques for optimizing the extraction of battery metals for a sustainable future. Course content • Basic principles of hydrometallurgical extraction• Techniques for recovering battery metals from end-of-life batteries• Environmental and sustainability aspects of metal extraction What you will learn • Understand the fundamentals of hydrometallurgical extraction and its role in sustainable metal recovery• Identify methods for recovering metals from various resources• Analyze sustainability challenges and implement solutions to minimize environmental impact Who is the course for? The course is designed for professionals in material recycling, the chemical and process industries, as well as researchers and engineers working with sustainable resource extraction. It is also suitable for those interested in learning the basics of metal extraction techniques for a sustainable future. LanguageThe course is offered in Swedish. Additional Information The course includes 40 hours of study and is offered for a fee.  

Batteries and battery technology are vital for achieving sustainable transportation and climate-neutral goals. As concerns over retired batteries are growing and companies in the battery or electric vehicle ecosystem need appropriate business strategies and framework to work with.This course aims to help participants with a deep understanding of battery circularity within the context of circular business models. Participants will gain the knowledge and skills necessary to design and implement circular business models and strategies in the battery and electric vehicle industry, considering both individual company specific and ecosystem-wide perspectives. Participants will gain the ability to navigate the complexities of transitioning towards circularity and green transition in the industry.The course includes a project work to develop a digitally enabled circular business model based on real-world problems. Course content Battery second life and circularity Barriers and enablers of battery circularity Circular business models Ecosystem management Pathways for circular transformation Design principles for battery circularity Role of advanced digital technologies Learning outcomes After completing the course, the student shall be able to: Describe the concept of battery circularity and its importance in achieving sustainability goals. Examine and explain the characteristics and differences of different types of circular business models and required collaboration forms in the battery- and electric vehicle- industry. Analyze key factors that are influencing design and implement circular business models based on specific individual company and its ecosystem contexts. Analyze key stakeholders and develop ecosystem management strategies for designing and implementing circular business models. Explain the role of digitalization, design, and policies to design and implement circular business models. Plan and design a digitally enabled circular business model that is suitable for a given battery circularity problem. Examples of professional roles that will benefit from this course are sustainability managers, battery technology engineers, business development managers, circular developers, product developers, environmental engineers, material engineers, supply chain engineers or managers, battery specialists, circular economy specialists, etc. This course is given by Mälardalen university in cooperation with Luleå University of Technology. Start and end dates are preliminary. Scheduled online seminars Two online meetings; one in the beginning of the course in March and one at the end of the course. Specific dates will be presented soon. Study effort: 80 hours