Heat capacity of carbon nanotubesBENEDICT, L. X; LOUIE, S. G; COHEN, M. L et al.Solid state communications. 1996, Vol 100, Num 3, pp 177-180, issn 0038-1098Article

The magnetic field dependence of the specific heat in quantum spin chains with axial symmetryPAPNICOLAOU, N; SPATHIS, P.Journal of physics. C. Solid state physics. 1987, Vol 20, Num 29, pp L783-L787, issn 0022-3719Article

Coexistence of phonon and nonphonon mechanisms of superconductivity and a method of their separationKRESIN, V. Z.Physical review. B, Condensed matter. 1984, Vol 30, Num 1, pp 450-452, issn 0163-1829Article

Specific heat of amorphous magnets with mixed exchange interactionsPOZO, J; FERRER, R.Physica status solidi. B. Basic research. 1984, Vol 121, Num 1, pp K39-K41, issn 0370-1972Article

The heat capacity of high-purity dysprosium from 0.5 to 20 K = Chaleur massique du dysprosium de haute pureté de 0,5 à 20 KHILL, R. W; GSCHNEIDNER, K. A. JR.Journal of physics. F. Metal physics. 1988, Vol 18, Num 12, pp 2545-2557, issn 0305-4608Article

Low-temperature heat capacity of magnetic graphite intercalation compoundsSHAYEGAN, M; DRESSELHAUS, M. S; SALAMANCA-RIBA, L et al.Physical review. B, Condensed matter. 1983, Vol 28, Num 8, pp 4799-4809, issn 0163-1829Article

Heat capacity studies of ThP and UP_0.5As_0.5 solid solution. Reanalyzing UP dataBLAISE, A; LAGNIER, R; GORDON, J. E et al.Journal of low temperature physics. 1985, Vol 61, Num 5-6, pp 323-335, issn 0022-2291Article

MOLAR HEAT CAPACITY OF NON-STOICHIOMETRIC NICKEL HYBRIDES IN THE TEMPERATURE RANGE 10 TO 20 K.BARKLEIT G; WOLF G.1975; PHYS. STATUS SOLIDI, A; ALLEM.; DA. 1975; VOL. 28; NO 1; PP. 139-143; ABS. ALLEM.; BIBL. 18 REF.Article

Correction to the heat capacity at constant volume of anharmonic crystalsTRIVEDI, P. C.Journal of physics. C. Solid state physics. 1985, Vol 18, Num 5, pp 983-987, issn 0022-3719Article

Specific heat and magnetic susceptibility of polyaniline nanotubes: inhomogeneous disorderYUNZE LONG; JIANLIN LUO; JIE XU et al.Journal of physics. Condensed matter (Print). 2004, Vol 16, Num 7, pp 1123-1130, issn 0953-8984, 8 p.Article

Low-temperature specific heats of C₂₄K(H₂)_x and C₂₄K(D₂)_xKONDOW, T; MIZUTANI, U.Synthetic metals. 1983, Vol 6, Num 2-3, pp 141-147, issn 0379-6779Article

Heat capacities of globular proteinsYE YUAN; YINHAO WU; JIAN ZI et al.Journal of physics. Condensed matter (Print). 2005, Vol 17, Num 3, pp 469-473, issn 0953-8984, 5 p.Article

Low temperature specific heat and fragility of glassesZHU, D.-M; HUIWEI CHEN.Journal of non-crystalline solids. 1998, Vol 224, Num 1, pp 97-101, issn 0022-3093Article

Fluctuation theory of the specific heat of normal liquid ³HeMISHRA, S. G; RAMAKRISHNAN, T. V.Physical review. B, Condensed matter. 1985, Vol 31, Num 5, pp 2825-2830, issn 0163-1829Article

Magnetic and phonon contributions to the specific heat of PdNi alloys between 1.8 and 300 K = Contributions magnétiques et des phonons à la chaleur massique des alliages PdNi entre 1,8 et 300 KLORAM, J. W; MIRZA, K. A; CHEN, Z et al.Journal of physics. F. Metal physics. 1986, Vol 16, Num 2, pp 233-255, issn 0305-4608Article

Low-frequency Einstein mode in the heavy-fermion compound UBe₁₃ = Mode de Einstein aux basses fréquences dans le composé à fermions lourds UBe₁₃RENKER, B; GOMPF, F; REICHARDT, W et al.Physical review. B, Condensed matter. 1985, Vol 32, Num 3, pp 1859-1861, issn 0163-1829Article

The specific heat of erbium from 0.4 to 23 K = La chaleur massique de l'erbium entre 0,4 et 23 KHILL, R. W; COSIER, J; HUKIN, D. A et al.Journal of physics. F. Metal physics. 1984, Vol 14, Num 5, pp 1267-1276, issn 0305-4608Article

Low-temperature specific heat of USb and UTeRUDIGIER, H; FIERZ, C; OTT, H. R et al.Solid state communications. 1983, Vol 47, Num 10, pp 803-806, issn 0038-1098Article

The specific heats of LaAg, GdAg and Gd₂O₃ from 0.5 to 22 K = Les chaleurs massiques de LaAg, GdAg et Gd₂O₃ de 0,5 à 22 KHILL, R. W; COSIER, J; HUKIN, D. A et al.Journal of physics. C. Solid state physics. 1983, Vol 16, Num 15, pp 2871-2880, issn 0022-3719Article

ELECTRONIC HEAT CAPACITY OF BISMUTHMAN MOHAN KRISHANA; SRIVASTAVA BN.1973; SOLID STATE COMMUNIC.; G.B.; DA. 1973; VOL. 12; NO 6; PP. 433-436; ABS. FR.; BIBL. 20 REF.Serial Issue

On the magnetic part of C_V of amorphous materialsSLECHTA, J.Physica status solidi. B. Basic research. 1984, Vol 123, Num 2, pp K133-K137, issn 0370-1972Article

Metal-insulator transition and local moments in a narrow band: a simple thermodynamic theorySPALEK, J; OLES, A. M; HONIG, J. M et al.Physical review. B, Condensed matter. 1983, Vol 28, Num 12, pp 6802-6811, issn 0163-1829Article

The effect of hydrogenation on magnetic interactions in CeNiKOLOMIETS, A. V; HAVELA, L; POSPISIL, J et al.Journal of physics. Condensed matter (Print). 2009, Vol 21, Num 44, issn 0953-8984, 446003.1-446003.8Article

Hybridization effects in U₂(Re,Os)B₆ and U(Ru,Os)B₄RIEGER, J. J; MIELKE, A; SCHEIDT, E.-W et al.Journal of alloys and compounds. 1995, Vol 221, Num 1-2, pp 42-44, issn 0925-8388Article

Effect of size quantization on the electronic heat capacity in ultrathin films of semiconductorsMONDAL, M; GHATAK, K. P.Physica status solidi. B. Basic research. 1983, Vol 120, Num 1, pp K63-K68, issn 0370-1972Article