  The standard model of cosmic ray propagation has been very successful in
explaining all kinds of the Galactic cosmic ray spectra. However, high
precision measurement recently revealed the appreciable discrepancy between
data and model expectation, from spectrum observations of $\gamma$-rays,
$e^+/e^-$ and probably the $B/C$ ratio starting from $\sim$10 GeV energy. In
this work, we propose that the fresh cosmic rays, which are supplied by the
young accelerators and detained by local magnetic field, can contribute
additional secondary particles interacting with local materials. As this early
cosmic ray has a hard spectrum, the model calculation results in a
two-component $\gamma$-ray spectrum, which agree very well with the
observation. Simultaneously, the expected neutrino number from the galactic
plane could contribute $\sim60\%$ of IceCube observation neutrino number below
a few hundreds of TeV. The same pp-collision process can account for a
significant amount of the positron excesses. Under this model, it is expected
that the excesses in $\overline p/p$ and $B/C$ ratio will show up when energy
is above $\sim$10 GeV. We look forward that the model will be tested in the
near future by new observations from AMS02, IceCube, AS$\gamma$, HAWC and
future experiments such as LHASSO, HiSCORE and CTA.
