We investigate the inclusive production of fully charmed tetraquarks, $$T_{4c}(0^{++})$$
T
4
c
(
0
+
+
)
or $$T_{4c}(2^{++})$$
T
4
c
(
2
+
+
)
radial excitations, in high-energy proton collisions. We build our study upon the collinear fragmentation of a single parton in a variable-flavor number scheme, suited to describe the tetraquark formation mechanism from moderate to large transverse-momentum regimes. To this extent, we derive a novel set of DGLAP-evolving collinear fragmentation functions, named determinations. They encode initial-scale inputs corresponding to both gluon and heavy-quark fragmentation channels, defined within the context of quark-potential and spin-physics inspired models, respectively. We work within the NLL/$$\hbox {NLO}^+$$
NLO
+
hybrid factorization and make use of the numeric interface along with the symbolic calculation plugin. With these tools, we provide predictions for high-energy observables sensitive to $$T_{4c}$$
T
4
c
plus jet emissions at center-of-mass energies ranging from 14 TeV at the LHC to the 100 TeV nominal energy of the FCC.