First appli­ca­ti­on-ori­en­ted Rese­arch Pro­jects laun­ched

Pro­files of the Pro­jects fun­ded under the “Trans­fer und Netz­in­te­gra­ti­on der Quan­ten­kom­mu­ni­ka­ti­on” Call published:

As part of the Fede­ral Government’s IT secu­ri­ty rese­arch frame­work pro­gram­me “Digi­tal. Sicher. Sou­ve­rän.”, the Bun­des­mi­nis­te­ri­um für For­schung, Tech­no­lo­gie und Raum­fahrt (BMFTR) intends to fund rese­arch and deve­lo­p­ment aimed at trans­fer­ring Quan­tum Com­mu­ni­ca­ti­on Sys­tems into prac­ti­cal appli­ca­ti­on and inte­gra­ting them into net­works. In addi­ti­on to an over­ar­ching roof pro­ject, the pro­gram­me par­ti­cu­lar­ly sup­ports appli­ca­ti­on-ori­en­ted and end-user-focu­sed rese­arch pro­jects that address key chal­lenges in inte­gra­ting the­se sys­tems into exis­ting and future ICT net­works and prepa­re them for deploy­ment under real-world con­di­ti­ons. The first appli­ca­ti­on-ori­en­ted rese­arch pro­jects were suc­cessful­ly laun­ched in Janu­ary 2026. The­se include the pro­jects “AQUILA”, “Q‑Stars” and “QCy­ber”. The cor­re­spon­ding pro­ject pro­files were published on the BMFTR web­site in mid-Febru­ary 2026.

The joint pro­ject “Agi­ler Quan­ten­schlüs­sel­ser­ver mit anpas­sungs­fä­hi­ger Archi­tek­tur (AQUILA)” aims to rese­arch and demons­tra­te, in an appli­ca­ti­on-ori­en­ted con­text, a fle­xi­bly deploya­ble Quan­tum Key Ser­ver. The ser­ver is desi­gned to exe­cu­te various cryp­to­gra­phic func­tions inde­pendent­ly of spe­ci­fic plat­forms and to auto­ma­ti­cal­ly allo­ca­te available resour­ces as well as sui­ta­ble pro­to­cols. In addi­ti­on to a stan­dar­di­sable soft­ware archi­tec­tu­re, a modu­lar hard­ware solu­ti­on is also being deve­lo­ped: com­pact plug-in cards in the form of Quan­tum Key Modu­les for dif­fe­rent QKD pro­to­cols.

The pro­ject “Q‑STARS” aims to deve­lop a hybrid com­mu­ni­ca­ti­on net­work with end-to-end secu­ri­ty and trust­wort­hi­ness. To this end, quan­tum-based and clas­si­cal cryp­to­gra­phic methods are com­bi­ned with phy­si­cal lay­er secu­ri­ty tech­ni­ques and inte­gra­ted into hete­ro­ge­neous trans­mis­si­on infra­struc­tures. In addi­ti­on, clas­si­cal and quan­tum-based moni­to­ring and mea­su­re­ment methods are com­bi­ned to ensu­re the inte­gri­ty of the net­work.

Within the frame­work of the joint pro­ject “QCy­ber,” new approa­ches for net­work­ed mul­ti-par­ty Quan­tum Com­mu­ni­ca­ti­on Appli­ca­ti­ons are being inves­ti­ga­ted. The goal is to sys­te­ma­ti­cal­ly eva­lua­te their prac­ti­cal fea­si­bi­li­ty and secu­ri­ty. To this end, advan­ced mul­ti­par­ti­te Quan­tum Com­mu­ni­ca­ti­on Pro­to­cols are ana­ly­zed, and sui­ta­ble hard­ware solu­ti­ons are deve­lo­ped for the use of mul­ti­par­ti­te ent­an­gled Quan­tum Sta­tes as a cen­tral resour­ce in future Quan­tum Net­works. Click here for more infor­ma­ti­on about call and pro­jects.

Source refe­rence: Bun­des­mi­nis­te­ri­um für For­schung, Tech­no­lo­gie und Raum­fahrt (BMFTR)