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Speaker: Michel Devoret The accuracy of logical operations on quantum bits (qubits) must be improved for quantum computers to surpass classical ones in useful tasks. To that effect, quantum information needs to be made robust to noise that affects the underlying physical system. Rather than suppressing noise, quantum error correction aims at preventing it from causing logical errors. This approach

https://www.nano.lu.se/abstract-error-correction-logical-qubit - 2025-12-05

Speaker: Peter Zoller Quantum simulation aims at `solving´ complex quantum many-body problems efficiently and with controlled errors on quantum devices. Here we discuss quantum simulation from the perspective of programmable analog quantum simulators, as realized in present cold atom and ion experiments, where the unique features are scalability to large particle numbers and programmability. The f

https://www.nano.lu.se/abstract-programmable-quantum-simulators-atoms-and-ions-overview-talk - 2025-12-05

Speaker: Immanuel Bloch 40 years ago, Richard Feynman outlined his vision of a quantum simulator for carrying out complex calculations of physical problems. Today, his dream has become a reality and a highly active field of resarch across different platforms ranging from ultracold atoms and ions, to superconducting qubits and photons. In my talk, I will outline how ultracold atoms in optical latti

https://www.nano.lu.se/abstract-large-scale-quantum-simulations-using-ultracold-atoms-optical-lattices - 2025-12-05

Speaker: Rainer Blatt The state-of-the-art of the Innsbruck trapped-ion quantum computer [1] is briefly reviewed. We present an overview on the available quantum toolbox and discuss the scalability of the approach. With up to 50 fully controlled ion qubits we perform quantum simulations investigating quantum transport [2] and emerging hydrodynamics features [3]. Employing the quantum toolbox for e

https://www.nano.lu.se/abstract-quantum-computation-and-quantum-simulation-trapped-ca-ions - 2025-12-05

Speaker: Krysta Svore While quantum computation has long been promised, and new scenarios and problems for it to tackle are being explored, at the moment we are short on scale. To define and understand the requirements of scale requires also knowing the needs of the problems to be solved.  And then, together with those requirements, working to define the desiderata of the system architecture.  I’l

https://www.nano.lu.se/abstract-quantum-scale - 2025-12-05

Speaker: Jukka Pekola I will describe experiments on superconducting quantum circuits combined with an ultrasensitive calorimeter. The heart of the calorimeter is a thermometer capable of measuring local temperature down to microsecond time scales. Experiments on quantum limited heat transport, heat valves and refrigerators based on superconducting qubits will be presented. A detector with noise d

https://www.nano.lu.se/abstract-quantum-thermodynamics-experiments-superconducting-circuits - 2025-12-05

Speaker: Jian-Wei Pan In this talk, I will give an overview on the 40 years’ long history of quantum communications and show how this field has evolved from a pure theoretical idea into an emerging technology. The privacy and security underpin human dignity and is one of the most important human rights. However, every advance in classical cryptography has been defeated by advances in cracking. In

https://www.nano.lu.se/abstract-dream-or-reality-quantum-communication-past-present-and-future-overview-talk - 2025-12-05

Speaker: Elisabeth Giacobino This talk will present the first achievements in experimental quantum optics, with the realization of squeezed light and quantum correlated beams for continuous variables, and the generation of single photons, and twin and entangled photons, leading to groundbreaking results in basic quantum physics as well as in applications. Then it will show the impressive progress

https://www.nano.lu.se/abstract-quantum-optics-first-achievements-quantum-technologies-overview-talk - 2025-12-05

Semiconductors are vital for information technology, which is why we emphasize this field’s research for high-performance electric and optical devices. Devices and applications based on semiconductors are at the heart of modern society. Within the NanoLund research area of Semiconductor Technology, we aim to develop and understand new materials, structures, and concepts for applications in high-pe

https://www.nano.lu.se/research/semiconductor-technology - 2025-12-05

The ongoing digitalization and electrification for more efficient usage of resources and energy require better and more efficient electronic devices. We perform research on novel high-performance devices. This ranges from wide bandgap devices for power electronics, to efficient memory and devices ideally suited for the implementation of artificial intelligence to quantum-enabled cryogenic electron

https://www.nano.lu.se/research/semiconductor-technology/electronic-devices - 2025-12-05

Solar cells harvest the most plentiful renewable energy source on the planet, the sun. Geometrically enhanced light absorption in semiconductor nanowires make them interesting for the future generation of solar cells. High-efficiency solar cells use only about 1 g of material per m2. Projects within Nanowire-based photovoltaicsNanowire tandem cellsNanowire/perovskite solar cellsHot carrier solar c

https://www.nano.lu.se/research/semiconductor-technology/nanowire-based-photovoltaics - 2025-12-05

Within photonic devices, we fabricate and study controlled emission and detection of photons using semiconductor devices. Project areas within Photonic devicesLEDsNanowire-based micro-LEDs for display and lighting applicationsNanowire carrier diffusion induced light emitting diodesDetectorsNanowire photodetectorsLEDsLighting and displays account for a major part of our energy consumption, and pres

https://www.nano.lu.se/research/semiconductor-technology/photonic-devices - 2025-12-05

The NanoLund mentoring programme focuses on professional development for PhD students and postdocs. The programme aims to provide a flexible and tailored approach, allowing the mentees to discuss professional ambitions and challenges with mentors from outside their research group. The mentor plays an important role as an independent resource to guide and help the mentees to develop their full pote

https://www.nano.lu.se/mentoringprogramme - 2025-12-05

This page describes topics that are available for master thesis projects within NanoLund. Students are invited to contact the supervisors for the projects they find interesting directly. Master project informationCurrent master project offersMaster project informationInformation about the master thesis requirements for the different faculties can be found below.Faculty of Engineering (LTH)Degree p

https://www.nano.lu.se/nanolund-thesis-projects - 2025-12-05

27 January 2022 15:15 Prof. Magnus Berggren, Linköping University. Talk title: In-operando and in-vivo polymerization of trimers for neuromorphic and bioelectronic systems Magnus Bergren's personal page: research profile, short bio and publications 24 May 2022 15:15 Please note that this time the colloquium will be held in the Rydberg lecture hall. Dr. Esther Alarcón Lladó, AMOLF, Netherlands Talk

https://www.nano.lu.se/2022-nanoscience-colloquia - 2025-12-05

Transitioning to the next level, Lund University is building a new, state-of-the-art nano laboratory next to the exclusive research facilities ESS and MAX IV, in Lund’s Science Village. Nanolab Science Village will also offer researchers unique opportunities to provide humanity with new knowledge for a sustainable civilization – paving the way for the establishment of Lund University in the emergi

https://www.nano.lu.se/labs/lund-nano-lab/nanolab-science-village - 2025-12-05

NanoLund’s vision is to be a world-leading research center that uses the unique opportunities offered by nanoscience to advance fundamental science and to address societal challenges. To realize our vision, we are organized into research areas. Materials & Manufacturing – Controlled synthesis and assembly of nanostructured materials are key in future sustainability applications.Quantum Physics – F

https://www.nano.lu.se/research - 2025-12-05

Past Annual Meetings (2017–2025) Annual Meeting 2025 (PDF, 193 kB)Annual Meeting 2024 (PDF 133 kB)Annual Meeting 2023 – Light & Materials Synergy Day (PDF 28 kB)Annual Meeting 2022 (PDF 217 kB)Annual Meeting 2021 (PDF 227 kB)Annual Meeting 2020 (PDF 62 kB)Annual Meeting 2019 (PDF 65 kB)Annual Meeting 2018 (PDF 59 kB)Annual Meeting 2017 (PDF 99 kB)

https://www.nano.lu.se/annualmeeting/past-annual-meetings - 2025-12-05

Research areas:Spatially and temporally resolved studies of charge carriers in semiconductors and metal.Micro photoluminescene studies of semiconductors and biological samplesHot carrier cooling in perovskite nanostructuresTerahertz Materials AnalysisQuantum dynamics of matter-light interactionQuantum optical properties of nanostructuresSpatially and temporally resolved studies of charge carriers

https://www.nano.lu.se/research/photons/probing-excitations-and-charges-nanomaterials-using-photons - 2025-12-05

Research areas:Polaritons: Microcavity mediate strong light matter interactionPerovskite nanocrystal solidsEfficient Photoelectrode Fabrication for Renewable Energy TechnologiesPolaritons: Microcavity mediate strong light matter interactionResonance with a cavity mode provides means for strong light-matter interaction. We have prepared a microcavity with a high concentration of photosynthetic ligh

https://www.nano.lu.se/research/photons/light-active-materials - 2025-12-05