The influence of temperature on oscillations of the transverse magnetoresistance of Zn,Cd,Hg, -,-,Te (x = 0.08, y = 0.1 1) in the range 77 to 200 K and under magnetic fields of up to 2.5 T is studied. It is shown that the structure of the observed oscillations cannot be interpreted by participation of one kind of phonons only in magnetophonon resonance. The interpretation of experimental peaks with the help of magnetophonon resonances at different phonon frequencies describing the different sublattices of the solid solution (HgTe-like, CdTe-like, ZnTe-like) is given.It is well known that introduction of a limited amount of Zn into a solid solution of Hg, _,Cd,Te stabilizes the crystal lattice, increasing the bond energy of Hg atoms [l, 21 what rectifies the main defect of this compound. For this reason the study of the band structure and phonon spectrum of the new solid solutions Zn,Cd,Hg,-,-,Te (ZCMT) alternative to Hg, -,Cd,Te seems to be very important. An excellent method for this is magnetophonon resonance (MPR) [3]. In our previous paper [4], the parameters of the band structure and their temperature dependencies in the range of 4.2 to 200K for several compositions of ZCMT were determined with the help of cyclotron resonance and MPR in the range of magnetic fields 2 to 6T. In the present paper we are mainly concerned with magnetoresistance oscillations in weak magnetic fields ( B < 2 T). We will attempt to interpret the observed peaks using already known parameters of the band structure.The effect of temperature on oscillations of the transverse magnetoresistance in the epitaxial layers Zn,Cd,Hg,-,-,Te at x = 0.08, y = 0.11, mobility p = 9 x lo4 cm2/Vs, and concentration n = 4 x 10'' cm-3 has been studied. The second derivative of the transverse magnetoresistance exx as a function of pulsed magnetic field B, obtained in the temperature range 77 to 200 K has been registered. Pulsed magnetic field allows us to obtain a number ') Rejtana 16a, PL-35-310 Rzeszbw, Poland. ') I. Franko 24, 293-720 Drohobych, Ukraine.