The DeQD project represents a collaborative effort to advance quantum photonic technology, ultimately enabling the creation of synchronized, indistinguishable photons and advancing the fields of optical quantum computing and secure quantum communication. This progress hinges on innovative approaches to quantum material growth and device integration. A single chip housing single-photon sources capable of generating multiple synchronous and indistinguishable photons on demand is a sought-after component in quantum computation and quantum cryptography. Optical quantum computing is a rapidly advancing approach, and deterministic single-photon sources offer a promising avenue for scaling up. Previous work has confirmed the feasibility of this approach, demonstrating that the photon quality is sufficient to achieve quantum advantage. Scaling up to multiple single-photon sources is the next significant milestone, demanding further progress in quantum material growth and device fabrication. The outcome of the DeQD project is a novel method for deterministic growth of quantum dots and integrating them precisely into a photonic structure. Quantum dot growth relies on a molecular beam epitaxy system at DFM, followed by nanofabrication of devices at Sparrow Quantum and optical spectroscopy at NBI.

The Industrial PhD project aims to document and evaluate the implementation of regenerative leadership practices (RLP) within a sales organization, with the goal of advancing RLP through research-supported methodologies, enhancements, and systematic evaluation. Additionally, based on recent theories, it seeks to assess the effectiveness of integrating RLP with design thinking methods in facilitating sustainable organizational change, aspiring to pioneer regenerative leadership approaches.

Projektet skal kvantificere det dynamiske forhold mellem pris på aktier og de tilsvarende optioner. Det skal derefter undersøges hvorvidt modellen kan prædiktere fremtidige afkastrater, beskrevet af det forventet afkast, i form af en aktierisiko-præmie og hvor meget priserne fluktuerer, i form af volatilitet. Herudover skal projektet udvikle teknologi der skal kunne sammensætte en portefølje af individuelle aktier baseret på beskrivende statistik, regnskabstal og ESG-rating.

The project will study the use of machine learning technologies in the detection and identification of trade-based money laundering (TBML) in Denmark. The project will combine data on corporate structures, transactions, and international, with the goal of identifying companies and entities involved in TBML. Doing so will involve the detecion of anomalous patterns in trade and financial networks, as well as the identification of companies that may be acting as shell companies.

Det ansøgte erhvervs-PhD projekt har til formål at udvikle empiriske modeller til at beskrive og kvantificere minimum vandføringsscenarier som understøtter biodiversitet og god økologisk tilstand i danske vandløb. De udviklede modeller vil blive testet og valideret gennem case scenarier med høj relevans for private og offentlige slutbrugere og er tiltænkt anvendelse i den danske miljøforvaltning, hvor der mangler metoder og værktøjer til at sikre bæredygtig udnyttelse af ferskvandsressourcerne.

.Afhængighed af grønne løsninger nødvendiggør energilagring, hvilket gør batterier til en vigtig del af den grønne omstilling. Øget brug af batterier i vores samfund har skiftet fokus til batteri brandsikkerhed. På trods af at teknologien er bredt accepteret og anvendt, mangler der ingeniørmetoder til batteri brandsikkerhedsdesign, hvilket kan blive skadeligt for teknologiimplementeringen. Dette projekt vil undersøge brandudviklingen i batterier og udvikle metoder til batteri-designbrande.

Sparrow Quantum (SQ) er en førende udbyder af enkelt-foton-kilder ved 950 nm. Virksomheden har leveret til forskningsgrupper og kvantecomputerudviklere, og vil nu udvide sin produktportefølje for at kunne imødekomme kvantekommunikationsindustrien. For at træde ind på dette marked er en effektiv deterministisk kilde til højkvalitets enkeltfotoner ved 1310 nm (O-båndet), afgørende. Projektet sigter mod at udvikle en sådan kilde og derved spille en afgørende rolle i kvantekommunikationsmarkedet.

Triple-negative breast cancer represents 15-20% of breast cancers and it is the most challenging sub-type to treat. There is currently no good treatment for TNBC. Patients with TNBC have a much shorter survival period once distant metastases have occurred. In this project, we will develop a therapeutic radiopharmaceutical (RP) that targets TNBC, including its metastases, and irradiates it. Our drug will be based on a fibroblast activation protein targeting moiety radiolabeled with iodine-131.