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Innovation & Startup

You are interested in learning about business startup and innovation topics? Check out PIER events and activities in this field.

PIER Research Funding

PIER offers funding for seed projects, joint workshops or short visits of international colleagues in your field.

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Transferable skills for doctoral and postdoctoral researchers

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Outstanding doctoral researchers of the PIER Helmholtz Graduate School (PHGS) can apply for a PHGS Travel Award to pay for travel to and participation in scientific events. Find out more...

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You are starting a doctorate at DESY or Universität Hamburg and want to become a member of the PIER Helmholtz Graduate School? Here you can sign up.

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Funded Seed Projects

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First measurement of the even number photon distribution of a squeezed vacuum state

Dr. Gulden Othman | Funding / PIER Seed Projects | 09/2023

Quantum computers (QCs) promise to help us solve computationally expensive problems that are currently unattainable for classical computers— from the modeling of complicated atomic systems and viruses, to optimization of shipping routes.


A vascularized, innervated, 3D skin-on-a-chip organoid model to study viral infections and antiviral treatment

Dr. Manja Czech-Sioli (UKE) | Funding / PIER Seed Projects | 09/2023

Physiological model systems and advanced analysis tools are the basis for a comprehensive understanding of infectious diseases and development of therapeutic strategies.


Tuning the valley selective excitation and phonon dynamics in tungsten disulfide quantum material

Dr. Christian Nweze | Funding / PIER Seed Projects | 09/2023

Exotic behavior of electrons in the quantum materials forms the basis for future technologies.


Investigation of the valence electronic structure and dynamics of nanostructured materials via high-order harmonic generation

Agata Azzolin | Funding / PIER Seed Projects | 09/2023

In the past two decades, the interest over nanophotonics has been constantly increasing, leading to remarkable results in light harvesting technologies, photocatalysis and optoelectronic applications.


Development of RF control for future gravitational wave detectors using SRF cavities

Dr. Louise Springer | Funding / PIER Seed Projects | 09/2023

The use of superconducting radio-frequency (SRF) cavities is a highly promising approach to search with a tabletop-sized device for gravitational waves above the LIGO/Virgo band in a largely uncharted frequency range.


First measurement of the even number photon distribution of a squeezed vacuum state

Dr. Gulden Othman | Funding / PIER Seed Projects | 09/2023

Quantum computers (QCs) promise to help us solve computationally expensive problems that are currently unattainable for classical computers— from the modeling of complicated atomic systems and viruses, to optimization of shipping routes.


A vascularized, innervated, 3D skin-on-a-chip organoid model to study viral infections and antiviral treatment

Dr. Manja Czech-Sioli (UKE) | Funding / PIER Seed Projects | 09/2023

Physiological model systems and advanced analysis tools are the basis for a comprehensive understanding of infectious diseases and development of therapeutic strategies.


Tuning the valley selective excitation and phonon dynamics in tungsten disulfide quantum material

Dr. Christian Nweze | Funding / PIER Seed Projects | 09/2023

Exotic behavior of electrons in the quantum materials forms the basis for future technologies.


Investigation of the valence electronic structure and dynamics of nanostructured materials via high-order harmonic generation

Agata Azzolin | Funding / PIER Seed Projects | 09/2023

In the past two decades, the interest over nanophotonics has been constantly increasing, leading to remarkable results in light harvesting technologies, photocatalysis and optoelectronic applications.


Development of RF control for future gravitational wave detectors using SRF cavities

Dr. Louise Springer | Funding / PIER Seed Projects | 09/2023

The use of superconducting radio-frequency (SRF) cavities is a highly promising approach to search with a tabletop-sized device for gravitational waves above the LIGO/Virgo band in a largely uncharted frequency range.


The influence of nano-structural interfaces and their composition on bone’s fracture behavior

Dr. Mahan Qwamizadeh (UKE), Dr. Imke A.K. Fiedler (UKE) | PIER Seed Projects | 08/2022

Human cortical bone is a highly complex composite that attains its unique combination of strength and toughness through deformation and toughening mechanisms at multiple length-scales throughout its hierarchical framework. Ageing and disease-related factors may alter the structure of bone at all levels of its hierarchy, raising the risk of fracture.


Employing pathogenic multispecies biofilms as a model for studying the structural components of the extracellular matrix and the role of uncharacterized proteins in infection

Dr. Ifey Alio (UHH) | PIER Seed Projects | 08/2022

Until now microbiology has mainly focused on single species microorganisms as the main drivers of infections. However with an improved understanding on the human microbiome it has become clear that in lungs and wounds complex microbial consortia establish infections. In clinical settings there is evidence that both fungi and bacteria contribute to respiratory infection particularly among cystic fibrosis Patients.


Measurement of Vacuum Magnetic Birefringence using the ALPS II Magnet String

Dr. Aaron Spector (DESY) | PIER Seed Projects | 08/2022

The theory of quantum electrodynamics remains a remarkably accurate description of the electrodynamic interactions as more and more of its predictions are experimentally verified.


Attosecond Electronics in Plasmonic Supercrystals under Deep Strong Coupling

Dr. Markus Ludwig (DESY) | PIER Seed Projects | 08/2022

Virtually every linear and nonlinear optical process relies on the interaction of light and matter. Especially under conditions of strongly pronounced light-matter coupling, rich physical phenomena with strong scientific and technological implications emerge.


Femtosecond to millisecond time-resolved spectroscopy of DNA pi-stacking in bulk and confined in microfluidic chips

Dr. Alessandra Picchiotti (UHH) | PIER Seed Projects | 08/2022

Knowing the exact mechanism of DNA damage that results in malignant melanoma is of vital importance for developing preventive measures and treatments. Sometimes the safe mechanisms fail to function, for example when the pi-stacking of too many nearby nucleobases is disrupted, leading to dimerization (pyrimidine dimers formation).


Femtosecond plasmon dynamics

Dr. Holger Lange (UHH) | PIER Seed Projects | 08/2022

Plasmonics treats the unique optical excitations of metallic nanoparticles. The plasmon is a collective electron oscillation, associated with localized fields.


Low-frequency mechanical oscillators under temperature gradients

Dr. Mikhail Korobko (UHH) | PIER Seed Projects | 08/2022

Thermal excitations play one of the most significant roles in most physical systems: from quantum computers to gravitational-wave (GW) detectors. Many experiments use cryogenic technology to suppress the influence of thermal environment.


Attosecond Dynamics in Norbornadiene/Quadricyclane Photoswitches

Dr. Giulio Maria Rossi (DESY) | PIER Seed Projects | 08/2022

Photochemistry is at the heart of highly efficient energy conversion in living matter and may be the basis of novel technologies aiming to a sustainable footprint of human activities on the planet.


Studying nonthermal phase transitions in metals on ultra-fast time scales using compact hard X-ray split-and-delay

Dr. Wojciech Roseker (DESY) | PIER Seed Projects | 08/2022

Intense, ultra-short, and coherent X-ray pulses from X-ray free electron lasers (XFELs) have a unique potential to reveal the fundamental understanding of ultra-fast processes in matter, in particular ultra-fast (nonthermal) melting in metals.


A tunable light source and plasmonics for selective, on-chip lysing of bio-organisms

Dr. Irene Fernandez-Cuesta (UHH) | PIER Seed Projects | 08/2021

A new technique for analyzing single molecules of DNA in real time has been developed by a joint UHH, DESY and UKE research group. To enhance the methodology, they aim to extract DNA directly on a chip, eliminating pipetting and material loss. By utilizing plasmonic structures and a high power white laser source, they plan to selectively lyse viruses, bacteria, and cells on-chip, allowing for targeted genomic material analysis within the same device.


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Associated publications

The PIER Seed Projects funding program was established in 2012. Since then, numerous publications have emerged from the various projects funded by PIER:

 

See all publications