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Heat transfer concerns the generation, use, conversion and exchange of thermal energy within and between different physical systems. With todays urgent need to reach a breakthrough in reduced greenhouse gas emissions and global warming the field of heat transfer is gradually becoming more important. In practice, heat transfer usually occurs together with fluid mechanics and structural dynamics in

https://www.energy.lth.se/about/divisions/heat-transfer - 2026-10-15

Thermal fluids is a multidisciplinary research area focusing on the behavior, interaction, and transport of heat, energy, and fluids. It encompasses topics like thermodynamics, fluid dynamics, and heat transfer, addressing challenges in energy systems, aerospace, manufacturing, and environmental engineering. Applications include cooling technolo-gies, combustion, renewable energy, and optimizing t

https://www.energy.lth.se/research/thermal-fluids - 2026-10-15

Sustainable propulsion and power focuses on developing energy-efficient, low-emission technologies for transportation and power generation. It integrates advanced materials, renewable fuels, electrification, and energy storage systems to minimize environmental impact. Research explores gas turbine and jet engine combustion, sustainable aviation fuels, rotating detonation engines, ramjet and scramj

https://www.energy.lth.se/research/sustainable-propulsion-power - 2026-10-15

Sustainable energy storage and conversion explores innovative methods to efficiently store and transform energy from various renewable sources. It focuses on technologies like advanced batteries, hydrogen production, fuel cells, and thermochemical systems as well as safety aspects of battery storage systems. Research aims to enhance energy density, reduce costs, and improve scalability, enabling r

https://www.energy.lth.se/research/energy-storage-conversion - 2026-10-15

Turbomachines are parts of our daily lives and come in all forms and shapes – from a dentist drill to turbines, vacuum cleaners, aircraft engines, and the largest nuclear units. In most applications, the efficiency of the involved turbomachinery is paramount. One prominent example could be a gas turbine firing an expensive or scarce fuel; efficiency is the key to operational economics.All aspects

https://www.energy.lth.se/research/turbomachinery - 2026-10-15

An increasing portion of wind turbines are installed in cold climate, e.g, northern Sweden. One must then consider ice-build-up on the turbine blades alters the shape of the blades, which in turn affects the aerodynamics of the turbine. Knowledge on how ice accretion influences the power output is of importance when assessing a potential site for wind turbines.By using computational fluid dynamics

https://www.energy.lth.se/research/wind-turbine-aerodynamics - 2026-10-15

The research is scientifically deep and broad. It encompasses transport phenomena and mechanisms, components, processes and systems. Modelling and numerical simulations as well as experimental investigations with laserbased measurement techniques and thermographically methods are typically occurring. Laboratories have been established for combustion engines, evaporative gas turbine, high pressure

https://www.energy.lth.se/research - 2026-10-15

Thermal cycles come in a plethora of variants, ranging from simple gas turbines to advanced high-temperature binary nuclear cycles. No other levels of research and development offer more performance- and feasibility aspects. By utilizing cycle analysis tools with advanced off-design modeling features, including full one-dimensional analysis, several advanced cycle modeling options come to the rese

https://www.energy.lth.se/research/advanced-cycles - 2026-10-15

Our research at the intersection of artificial intelligence and fluid mechanics aims to transform computational approaches to complex fluid systems. By developing advanced machine learning techniques, we are creating innovative methods to analyze and predict fluid behaviors across critical technological domains. We focus on two primary research directions. First, we use AI techniques like autoenco

https://www.energy.lth.se/research/artificial-intelligence-and-fluid-mechanics - 2026-10-15

The links on this page open in the Lund University Research Portal.  Var god vänta... Research Portal Our publications can be found in Lund University's Research Portal:Doctoral thesesLicentiate thesesArticles in magazinesConference papers

https://www.energy.lth.se/publications - 2026-10-15

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https://www.energy.lth.se/staff - 2026-10-15

Lund high-pressure combustion facility is a facility for combustion technology experiments under conditions similar to combustion in gas turbines for electricity production and aircraft engines. The main research area concerns sustainable fuels. HistoryIn the wake of the decision to decommission the Barsebäck nuclear power plant, the government decided on June 26, 1997, to establish a delegation t

https://www.energy.lth.se/lund-high-pressure-combustion-facility - 2026-10-15

Common warning signs Flammable materialAll laboratories and cupboards that containflammable material should be marked withthis pictogram. Gas cylindersAll laboratories that contain a gas cylindershould be marked with this sign. Potentially explosive atmosphereWork according to fire protection routines.Contact your fire protection responsibleperson for information. Liquid nitrogenAll laboratories t

https://www.kc.lu.se/en/employee/general-safety-regulations/7-signs-and-symbols/73-warning-signs - 2026-10-15

Mandatory signs are circular in shape. White symbol on a blue background. Usually accompanied by an explanatory text. Examples are listed below.Mandatory signDescription  Eye protection must be worn. Hearing protection must be worn. Respiratory protection must be worn. Face protection must be worn. Protective clothing must be worn. Fire door - Keep closed. Secure gas cylinders of all sizes,whether

https://www.kc.lu.se/en/employee/general-safety-regulations/7-signs-and-symbols/74-mandatory-signs - 2026-10-15

Emergency signs are rectangular or square. White symbol on a green background. Examples are listed below.Emergency signsDescription Location of an eyewash/shower. Location of first aid kit. Location of emergency shower. Show direction of escape route. Location of a defibrillator.

https://www.kc.lu.se/en/employee/general-safety-regulations/7-signs-and-symbols/75-emergency-signs - 2026-10-15

Fire safety signs are rectangular or square. White symbol on a red background. Examples are listed below.Fire safety signDescription Location of fire extinguisher. Location of fire hose / hydrant. Location of button for evacuation alarm. Fire Equipment, sometimes specified with text.

https://www.kc.lu.se/en/employee/general-safety-regulations/7-signs-and-symbols/76-fire-safety-signs - 2026-10-15

At Lund University and Kemicentrum, we are committed to minimizing our environmental impact while ensuring the safety of our co-workers. Proper waste sorting plays an important role in achieving these goals. To support your efforts, all waste handling services are provided free of charge.Hazardous waste is managed by SYSAV Industri AB, and there are specific rules to follow for proper waste dispos

https://www.kc.lu.se/en/employee/general-safety-regulations/8-waste-handling - 2026-10-15

All organic solvent waste should be separated into:Halogenated wasteNon-halogenated wasteNote that the organic solvent waste category excludes ethers. For details regarding the disposal of ethers, see section 8.2 Chemical Waste. Additionally, oil is categorized as chemical waste and must be stored in sealed, leak-proof containers. For more information on handling oil waste, see section 8.2 Chemica

https://www.kc.lu.se/en/employee/general-safety-regulations/8-waste-handling/81-organic-solvent-waste - 2026-10-15

All chemicals must be handled in accordance with the Safety Data Sheet (SDS). The details regarding disposal considerations and waste treatment methods are described in Section 13 of the SDS.Basic principles for disposing of chemicals into the sewage systemAll chemicals must be handled according to the information provided in Section 13 of the safety data sheet. Only when the safety data sheet exp

https://www.kc.lu.se/en/employee/general-safety-regulations/8-waste-handling/82-chemical-waste - 2026-10-15

Radioactive waste is categorized into low-level radioactive waste, mediumlevel radioactive waste, high-level radioactive waste, and liquid scintillation solution.When handling radioactive waste, it is essential to follow the rules set by the Swedish Radiation Safety Authority (SSM) as well as the local regulations set by Lund University.Quality handbook for radioactive wasteThere must be a quality

https://www.kc.lu.se/en/employee/general-safety-regulations/8-waste-handling/83-radioactive-waste - 2026-10-15