Raya, KhépaniCui, Zhu-FangChang, L.Morgado Chávez, José ManuelRoberts, Craig D.Rodríguez Quintero, José2022-06-092022-06-092022-01Raya, K., Cui, Z.-F., Chang, L., Morgado, J. M., Roberts, C. D., & Rodríguez-Quintero, J. (2022). Revealing pion and kaon structure via generalised parton distributions *. In Chinese Physics C (Vol. 46, Issue 1, p. 013105). IOP Publishing. https://doi.org/10.1088/1674-1137/ac30711674-1137http://hdl.handle.net/10272/20961Clear windows onto emergent hadron mass (EHM) and modulations thereof by Higgs boson interactions are provided by observable measures of pion and kaon structure, many of which are accessible via generalised parton distributions (GPDs). Beginning with algebraic GPD Ansätze, constrained entirely by hadron-scale and K valence-parton distribution functions (DFs), in whose forms both EHM and Higgs boson influences are manifest, numerous illustrations are provided. They include the properties of electromagnetic form factors, impact parameter space GPDs, gravitational form factors and associated pressure profiles, and the character and consequences of allorders evolution. The analyses predict that mass-squared gravitational form factors are stiffer than electromagnetic form factors; reveal that K pressure profiles are tighter than profiles, with both mesons sustaining near-core pressures at magnitudes similar to that expected at the core of neutron stars; deliver parameter-free predictions for and K valence, glue, and sea GPDs at the resolving scale GeV; and predict that at this scale the fraction of meson mass-squared carried by glue and sea combined matches that lodged with the valence degrees-of-freedom, with a similar statement holding for mass-squared radiiengAtribución-NoComercial-SinDerivadas 3.0 Españahttp://creativecommons.org/licenses/by-nc-nd/3.0/es/Strong interactionsParton distributionsNonperturbative quantum field theoryPions and kaonsContinuum Schwinger function methodsEmergence of hadron massNambu-Goldstone modesjournal article10.1088/1674-1137/ac3071open access22 Física