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7. Irodalomjegyzék

7.4. Cikkek

[C1] VENACKER P.: Polyurethane (PU), Kunststoffe International, 97, 142-148 (2007) [C2] BUZÁSI L.: A poliuretánok gyártás-, feldolgozás- és alkalmazástechnikai fóru-

mának tapasztalatai, Műanyag és Gumi, 42, 12-19 (2005)

[C3] GRŐB P.: Poliuretán elasztomerek az elektrotechnikában, Elektrotechnika- mikrotechnika, (megjelenés alatt)

[C4] TSENG C., YAMAGUCHI M., OHMORI T.: Thermal conductivity of polyurethane foams from room temperature to 20 K, Cyrogenics, 37, 305-312 (1997)

[C5] WU J., SUNG W., CHU H.: Thermal conductivity of polyurethane foams, International Journal of Heat and Mass Transfer, 42, 2211-2217 (1999)

[C6] KHAKHAR D.V., JOSEPH K.V.: Optimalization of the structure of integral skin foams for maximal flexural properties, Polymer Engineering and Science, 34, 726-733 (1994)

[C7] ILDA M.,GOTOH M.,YOKONO H.,MIYANO Y.: Flexural properties of moldings of rigid polyurethane made by injection molding, Polymer Engineering and Science, 26, 701-707 (1986)

[C8] KIM J.H., KIM S.C.: Analysis of reaction injection molding process of polyurethane-unsaturated polyester blends. Part II: Mechanical properties, Polymer Engineering and Science, 27, 1252-1257 (1987)

[C9] YANG C.G., XU L., ZHANG L.Q., CHEN N.: An adiabatic calorimeter for heat capacity measurements of polyurethane foam with blowing agent of HDC245fa in the temperature range 60-290 K, Energy Conversion and Management, 47, 1124-1132 (2006)

[C10] SMIRNOVA N.N., KULAGINA T.G., BYKOVA T.A., FAINLEIB A.M.:

Thermodynamics of semi-interpenetrating polymeric networks based on crosslinked poly(cyanurate) and linear poly(urethane) in the temperature region from T->0 to 350 K, Russian Chemical Bulletin, 55, 672-678 (2006)

[C11] RYAN A.J.,STANFORD J.L.,STILL R.H.: Structure-property relations in poly(urethane- urea)s and polyureas formed by reaction injection moulding: phase separation studies, Plastics and Rubber Processing and Applications, 13, 99-110 (1990)

[C12] RYAN A.J., STANFORD J.L.,STILL R.H.: Application of thermal methods in the characterisation of poly(urethane-urea)s formed by Reaction Injection Moulding, British Polymer Journal, 20, 77-83 (1988)

[C13] KWON O., YANG S., KIM D., PARK J.: Characterization of polyurethane foam prepared by using starch as polyol, Journal of Applied Polymer Science, 103, 1544-1553 (2007)

[C14] ABDUL-RANI A.M., HOPKINSON N.,DICKENS P.M.: Effect of mold temperature on high-resilince cold-cure flexible polyurethane foam surface texture, Journal of Cellular Plastics, 41, 133-151 (2005)

[C15] JACKOVICH D., O’TOOLE B., HAWKINS M.C., SAPOCHAK L.: Temperature and mold size effects on physical and mechanical properties of a polyurethane foam, Journal of Cellular Plastics, 41, 153-168 (2005)

[C16] ROJAS A.J.,MARCIANO J.H.,WILLIAMS R.J.: Rigid polyurethane foams: A model of the foaming process, Polymer Engineering and Science, 22, 840-844 (1982) [C17] CAMARGO R.E., GONZALES V.M., MACOSKO C.W., TIRRELL M.: Bulk

polymerization kinetics by the adiabatic reactor method, Rubber Chemistry and Technology Journal, 56, 774-783 (1983)

[C18] PANNONE M.C., MACOSKO C.W.: Reaction kinetics of a polyurea reaction injection molding system, Polymer Engineering and Science, 28, 660-669, (1988) [C19] BASER S.A., KHAKHAR D.V.: Modeling of the dynamics of water and R-11

blown polyurethane foam formation, Polymer Engineering and Science, 34, 642- 649 (1994)

[C20] BASER S.A.,KHAKHAR D.V.: Modeling of the dynamics of R-11 blown polyurethane foam formation, Polymer Engineering and Science, 34, 632-641 (1994)

[C21] HSU T.J., LEE L.J.: Reaction injection molding of polyureas I. Kinetics study, Polymer Engineering and Science, 28, 955-963 (1988)

[C22] TESSER R., DI SERIO M., SCLAFANI A., SANTACESARIA E.: Modeling of polyurethane foam formation, Journal of Applied Polymer Science, 92, 1875- 1886 (2004)

[C23] VESPOLI N.P.,ALBERTINO L.M.,PETERSON A.A.,EWEN J.H.: Mold filling studies of polyurea RIM systems, Journal of Elastomers and Plastics, 18, 159-176 (1986) [C24] VERHOEVEN V.W.A, PADSALGIKAR A.D., GANZEVELD K.J., JANSSEN L.P.B.M.:

A kinetic investigation of polyurethane polymerization for reactive extrusion purposes, Journal of Applied Polymer Science, 101, 370-382 (2006)

[C25] KIM D.S., GARCIA M.A., MACOSKO C.W.: Using mold pressure rise data to obtain viscosity of fast polymerizing systems, International Polymer Processing, 13, 162-171 (1998)

[C26] STEINLE E.C., CRITHCFIELD F.E., CASTRO J.M., MACOSKO C.W.: Kinetics and conversion monitoring in a RIM thermoplastic polyurethane system, Journal of Applied Polymer Science, 25, 2317-2329 (1980)

[C27] PANNONE M.C.,MACOSKO C.W.: Kinetics of isocyanate amine reactions, Jour- nal of Applied Polymer Science, 34, 2409-2432 (1987)

[C28] RODRIGUES J.M.E., PEREIRA M.R., DE SOUZA A.G., CARVALHO M.L., DANTAS

NETO A.A.,DANTAS T.N.C.,FONSECA J.L.C.: DSC monitoring of the cure kinetics of a castrol oil-based polyurethane, Thermochimica Acta, 427, 31-36 (2005)

[C29] PRIME R.B., MICHALSKI C., NEAG C.M.: Kinetic analysis of a fast reacting thermoset system, Thermochimica Acta, 429, 213-217 (2005)

[C30] YOUN J.R.,PARK H.: Bubble growth in reaction injection molded parts foamed by ultrasonic excitation, Polymer Engineering and Scinece, 39, 457-468 (1999) [C31] Kim D., CHOI K.: Cure kinetics and physical properties of dicyanate/

polyetherimide semi-IPN-s, Polymer Engineering and Science, 41, 758-762 (2001)

[C32] BLAKE J.W.,YANG W.P.,ANDERSON R.D., MACOSKO C.W.: Adiabatic reactive viscosimetry for polyurethane reaction injection molding, Polymer Engineering and Science, 27, 1236-1242 (1987)

[C33] WANG K.J., HUANG Y.J.,LEE L.J.: Reaction injection molding of polyureas II.

Rheo-kinetic changes and model simulation, Polymer Engineering and Science, 30, 654-664 (1990)

[C34] CASTRO J.M., LIPSHITZ S.D., MACOSKO C.W.: Laminar tube flow with a thermosetting polymerization, AIChe Journal, 28, 973-980 (1982)

[C35] RYAN J.,COATES P.D., JOHNSON A.F.,HYNDS J., PATRICK P.: Mould flows and post-mixhead rheology studies for poly(urethane-urea)s, Plastics and Rubber Processing and Applications, 13, 121-127 (1990)

[C36] ANTURKAR N.R.: Petrov-Galerkin finite element analysis for advancing flow front in reaction injection molding, Computers & Fluids, 24, 55-62 (1995)

[C37] BIESENBERGER J.A., GOGOS C.G.: Reactive polymer processing, Polymer Engineering and Science, 20, 838-846 (1980)

[C38] NEFF R. A., MACOSKO C. W.: Simultaneous measurement of viscoelastic changes and cell opening during processing of flexible polyurethane foam, Rheologica Acta, 35, 656-666 (1996)

[C39] GUPTA V.K., KHAKHAR D.V.: Formation of integral skin polyurethane foams, Polymer Engineering and Science, 39, 164-176 (1999)

[C40] MARCIANO J.H.,REBOREDO M.M.,ROJAS A.J.,WILLIAMS R.J.J.: Integral-skin polyurethane foams, Polymer Engineering and Science, 26, 717-724 (1986) [C41] CAMPBELL G.A.: Polyurethane foam process development. A system engineering

approach, Journal of Applied Polymer Sciene, 16, 1387-1402 (1972)

[C42] BERUTO D.T.,BAIARDO M.,MEZZASALMA S.A.: Foaming power, bubble nature, and sample density related to the expansion regime in polyurethane foams, Jo- urnal of Materials Synthesis and Processing, 7, 229-237 (1999)

[C43] LO Y.,REIBLE D.D.,COLLIER J.R.,CHEN C.: Three-dimensional modeling of reaction injection molding. I., Polymer Engineering and Science, 34, 1393- 1400 (1994)

[C44] LO Y., REIBLE D.D., COLLIER J.R., CHEN C: Three-dimensional modeling of reaction injection molding. II.: Application, Polymer Engineering and Science, 34, 1401-1405 (1994)

[C45] MOHAMMED R.K., OSSWALD T.A, SPIEGELHOFF T.J., SUN E.M.: Modeling and simulation of high Reynolds’ number flows during reaction injection mold filling, International Polymer Processing, 9, 279-285 (1994)

[C46] MITANI T.,HAMADA H.: Prediction of flow patterns in the polyurethane foaming process by numerical simulation considering foam expansion, Polymer Engineering and Science, 43, 1603-1612 (2003)

[C47] SEO D., YOUN J.R.: Numerical analysis on reaction injection molding of polyurethane foam by using a finite volume method, Polymer, 46, 6482-6493 (2005) [C48] HAYES R.E.,DANNELONGUE H.H.,TANGUY P.A.: Numerical simulation of mold filling in reaction injection molding, Polymer Engineering and Science, 31, 842- 848 (1991)

[C49] MALKIN A.Y., KUZNETSOV V.V., KLEBA I., MICHAELI W.: Modeling of structural reaction injection molding process. I. Mathematical model, Polymer Engineering and Science, 41, 850-857 (2001)

[C50] AOYAGI H., UENOYAMA M., GÜCERI S.I.: Analysis and simulation of structural reaction injection molding (SRIM), International Polymer Processing, 7, 71-83 (1992) [C51] YOKONO H., TSUZUKU S., HIRA Y., GOTOH M., MIYANO Y.: Simulation of

foaming process of polyurethane integral skin foams, Polymer Engineering and Science, 25, 959-964 (1985)

[C52] ANTURKAR N.R.: A Model of advancing flow front in RIM, Polymer Engineering and Science, 34, 1450-1454 (1994)

[C53] KIM J.H., KIM S.C.: Analysis of reaction injection molding process of polyurethane-unsaturated polyester blends. Part I: Computer simulation, Polymer Engineering and Science, 27, 1243-1251 (1987)

[C54] SANTOS R.J., TEIXEIRA A.M., LOPES J.C.B.: Study of mixing and chemical reaction in RIM, Chemical Engineering Science, 60, 2381-2398 (2005)

[C55] SEO D.,YOUN J.R., TUCKER C.L.: Numerical simulation of mold filling in foam reaction injection molding, Internatonal Journal For Numerical Methods In Fluids, 42, 1105-1134 (2003)

[C56] LEKAKOU C.N.,RICHARDSON S.M.: Simulation of reaction injection moulding in mould cavities of complex geometries, Plastics and Rubber Processing and Applications, 13, 129-137 (1990)

[C57] BIKARD J.,BRUCHON J., COUPEZ T., VERGNES B.: Numerical predection of the foam structure of polymeric materials by direct 3D simulation of their expansion by chemical reaction based on a multidomain method, Journal of Materials Science, 40, 5875-5881 (2005)

[C58] KRAUSS-MAFFEI Puromat gyártmánykatalógus

[C59] DE RIVÓ B.: Gyors szerszámgyártási technikák, Műanyag és Gumi, 43, 102-104 (2006)

[C60] JONES S.A., SCOTT K.W., WILLOUGHBY B.G., SHEARD E.A.: Monitoring of polyurethane foam cure, Journal of Cellular Plastics, 38, 285-299 (2002)

[C61] CLARKE W.D.: Foam pressure monitoring as a method of studying demold characteristics of appliance polyurethane insulation foam systems, Journal of Cellular Plastics, 21, 257-260 (1985)

[C62] KODAMA K.,RYOSHI H.,OKAMURA M.,FUJITA S.,FUJITA J.: New determination method of flowability and demolding properties in polyurethane rigid molded foams, Journal of Cellular Plastics, 33, 318-329 (1997)

[C63] MANZIONE L.T., OSINSKI J.S.: Moldability studies in reactive polymer processing, Polymer Engineering and Science, 23, 576-585 (1983)

[C64] COATES P.D.: Reactive processing of polymers, Plastics and Rubber Processing and Applications, 13, 71-73 (1990)

[C65] BILEN K., YAPICI S., CELIC C.: A Taguchi approach for investigation of heat transfer from surface equipped with rectangular blocks, Energy Conversion and Management, 42, 951-691 (2001)

[C66] CHEN R.S.,LEE H.H.,YU C.Y.: Application of Taguchi’s method on the optimal process design of an injection molded PC/PBT automobile bumper, Composite Structures, 39, 209-214 (1997)

[C67] KIM S.J., KIM K.S., JANG H.: Optimalization of manufacturing parameters for brake lining using Taguchi method, Journal of Materials Processing Technology, 136, 202-208 (2003)

[C68] SYRCOS G.P.: Die casting process optimalization using Taguchi methods, Jour- nal of Materials Processing Technology, 135, 68-74 (2003)

[C69] KUMAR S., KUMAR P., SHAN H.S.: Optimalization of tensile properties of evaporative pattern casting process through Taguchi’s method, Journal of Materials Processing Technology, 204, 56-69 (2008)

[C70] TORTUM A., YAYLA N., CELIK C., GÖKDAG M.: The investigation of model selection criteria on artificial neural networks by the Taguchi method, Physica A, 386, 446-468 (2007)

[C71] NIKBAKHT R., SADRZADEH M.,MOHAMMADI T.:Effect of operating parameters on concentration of citric acid using electrodialysis, Journal of Food Engineering, 83, 596-604 (2007)

[C72] SRIVASTAVA V.C., MALL I.D., MISHRA I.M.: Optimalization of parameters for adsorption of metal ions onto rice husk ash using Taguchi’s experimental design methodology, Chemical Engineering Journal, 140, 136-144 (2008)

[C73] KIM S., JANG J., KIM O.: The rheological properties optimalization of fumed silica dispersion using statistic expermental design and Taguchi method, Polymer Testing, 17, 225-235 (1998)

[C74] JAFARI A., TYNJÄLÄ T., MOUSAVI S.M., SARKOMAA P.: CFD simulation and evaluation of controllable parameters effect on thermomagnetic convection in ferrofluids using Taguchi technique, Computers&Fluids, (article in press, 2009) [C75] YANG L.J.: Plasma surface hardening of ASSAB 760 steel speciments with

taguchi optimalization of the processing parameters, Journal of Materials Processing Technology, 113, 512-526 (2001)

[C76] GRŐB P.–MAROSFALVI J.: Integrál poliuretán hab termékek időfüggő tulajdon- ságainak vizsgálata, Műszaki Szemle, OGÉT különszám, 151-154 (2008) [C77] GRŐB P., MAROSFALVI J.: Investigation of the pressure generated in the mould

cavity during polyurethane integral skin foam moulding, eXPRESS Polymer Letters, 2, 511-519 (2008)

[C78] GRŐB P.: The effects of technological parameters on the properties of PUR integral skin foams, Periodica Polytechnica Mechanical Engineering (megjelenés alatt)

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