David Jennings

Jessica Harrington was in disbelief when told Glamorously returned a 20-1 shot following her gutsy win in the €40,000 Irish Stallion Farms EBF... Read More

Emmet Mullins is now officially the maestro of the big-money handicaps and 24 hours after The Shunter stayed on powerfully to land the Cesarewitch at... Read More

Aidan O'Brien already trains the top three in the 2024 Epson Derby (G1) market and three could become four if Illinois can supplement his stylish success in a Curragh maiden in the Oct. 22 Criterium de Saint-Cloud (G1).

Colin Keane is determined to surpass last season’s winning total of 92 and put the cherry on top of a fifth jockeys' championship in Ireland. There... Read More

The son of Siyouni was headed to the Breeders' Cup Mile (G1T) with four group 1 wins. He has been retired to Coolmore with his stud fee to be announced.

It is 22 years since Noel Meade unleashed Harbour Pilot over fences during Galway's October bank holiday meeting and it is noteworthy he has chosen... Read More

David Casey would love the Lexus Melbourne Cup to be tomorrow, such is the wellbeing of hot favourite Vauban, who Paddy Power are already reporting... Read More

Trainer Aidan O'Brien described the decision as "hugely exciting" and said that all the top races will be open to Auguste Rodin in 2024, including the Breeders' Cup Classic (G1) on dirt.

Delia Malone, David Jennings and Rick Hopkins and Josh Rosneau Guest opinion

Simulators can realize novel phenomena by separating them from the complexities of a full physical implementation. Here, we put forward a scheme that can simulate the exotic statistics of D(S 3) non-Abelian anyons with minimal resources. The qudit lattice representation of this planar code supports local encoding of D(S 3)anyons. As a proof-of-principle demonstration, we employ a classical photonic simulator to encode a single qutrit and manipulate it to perform the fusion and braiding properties of non-Abelian D(S 3)anyons. The photonic technology allows us to perform the required nonunitary operations with much higher fidelity than what can be achieved with current quantum computers. Our approach can be directly generalized to larger systems or to different anyonic models, thus enabling advances in the exploration of quantum error correction and fundamental physics alike.