Nanotech Opportunity

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PRIOR CLIENTS:
[1] Naval Surface Warfare Center, MD; [2] Naval Ordnance Center, MD; [3] Martin Marietta Corp, FL & MD; [4] Amoco Corp, IL; [5] General Sciences Inc, PA; [6] AVX Corp, SC; [7] OEA Corp, CO; [8] Elgin Air Force Base, FL; [9] Army Aberdeen Edgewood, MD; [10] Stryker Instruments, MI; [11] Naval Surface Warfare Center, IN & VA; and [12] W.L. Gore & Assoc, MD.

TECHNICAL CAPABILITIES:

[1]		A new approach to thermochemical calculation of condensed fuel oxider mixtures.
[2]		A new technique for identification of the current carrying species in metastable solids.
[3]		A novel low temperature preparation of Ni Lu ferrite and the properties of the ultrafine particles formed.
[4]		A.C. electrical conductivity of potassium perchlorate.
[5]		Action of transition metal oxides on composite solid propellant.
[6]		Aging studies on carboxyl terminated polybutadiene (CTPB) binder and propellant.
[7]		Antireflection properties of indium tin oxide (ITO) on silicon for photovoltaic applications.
[8]		Assessment of the thermal decomposition and combustion behavior of double base propellant.
[9]		Calorimetric values of composite propellants.
[10]		Characterization of thermal and photo sublimation of organic explosives by thermobaragravimetric techniques.
[11]		Chemical changes during the ageing and decomposition of composite solid propellants.
[12]		Chemical microrocket construction for altitude control.
[13]		Chemistry of combustion of double base propellants through sliver analysis.
[14]		Chemistry of the incomplete decomposition of ammonium perchlorate (AP).
[15]		Color center induced band gap shift in yttria stabilized zirconia.
[16]		Combustion and thermal decomposition characteristics of composite solid propellants.
[17]		Combustion and thermal decomposition of ammonium perchlorate aluminum composite pellets: mechanism for aluminium participation.
[18]		Combustion and thermal decomposition of binary oxidizer system.
[19]		Combustion of ammonium perchlorate aluminum mixtures.
[20]		Combustion of ammonium perchlorate based propellants in presence of methyl ammonium perchlorates.
[21]		Combustion studies on ammonium perchlorateshrimethylammonium perchlorate mixture.
[22]		Condensed phase reactions in solid propellants.
[23]		Contribution of condensed phase reactions in the combustion of solid rocket fuels.
[24]		Correlation between combustion and decomposition of solid propellants.
[25]		Correlation between heats of depolymerization and activation energies in the degradation of polymers.
[26]		Crosslinking reaction of I, l'bis(glycidoxy methyl) ferrocene with carboxy terminated polybutadiene and its wetting effect.
[27]		Crystal structure transformation in ammonium and alkali metal perchlorates.
[28]		Crystal structure transformation in potassium acrylate.
[29]		Curing reactions in elastomers 11 carboxy terminated polybutadiene.
[30]		Curing reactions in plastic prepolymers and propellants - polystyrene.
[31]		D.C. ionic conductivity of potassium azide.
[32]		Defect sensitization of combustion and thermal decomposition of ammonium perchlorate: Effect of pelletizing pressure and dwell time.
[33]		Determination of kinetic parameters from a single thermogram.
[34]		Differential scanning calorimetric studies on thermal decomposition of ammonium perchlorate.
[35]		Differential thermal analysis of hydrazine derivatives.
[36]		Differential thermal analysis of potassium perchlorate.
[37]		Dinitrogen complex of magnesium.
[38]		DTA studies on the thermal oxidation and cross linking reactions of carboxy terminated polybutadiene.
[39]		Dual role of metallic lithium in the initiation of vinyl polymerization.
[40]		Effect of ageing on ballistic and mechanical property of propellants.
[41]		Effect of anti oxidants on the storage stability of model composite propellant system.
[42]		Effect of catalyst concentration on the burning rate of composite solid propellants.
[43]		Effect of doping on the sublimation of ammonium perchlorate.
[44]		Effect of electric field on ammonium perchlorate decomposition.
[45]		Effect of electric field on thermal decomposition and combustion of composite solid propellants.
[46]		Effect of floatation on coal combustion.
[47]		Effect of intentional impurities on the thermal impurities on the thermal stability of nitronium perchlorate.
[48]		Effect of lithium and ammonium flourides on ammonium perchlorate decomposition.
[49]		Effect of MnO, on the thermal decomposition of ammonium perchlorate.
[50]		Effect of physical and chemical treatment on the thermal decomposition of coal.
[51]		Effect of polymer coating on the thermal decomposition of composite propellants oxidizers.
[52]		Effect of pre treatment on the sublimation of ammonium perchlorate.
[53]		Effect of preheating on the burning rate of solid propellants.
[54]		Effect of prior gamma irradiation on thermal decomposition, ignition and combustion of coal.
[55]		Effect of prior mechanical and thermal treatment on the thermal decomposition alkali metal perchlorates.
[56]		Effect of prior mechanical and thermal treatment on the thermal decomposition and sublimation of cubic ammonium perchlorates.
[57]		Effect of prior mechanical and thermal treatment on the thermal decomposition of orthorhombic ammonium perchlorate.
[58]		Effect of prior ultraviolet irradiation on thermal decomposition and ignition of coal.
[59]		Effect of reduction on Vicker's hardness of stabilized zirconia.
[60]		Effect of storage temperatures on mechanical properties of composite solid propellants.
[61]		Effect of the method of preparation on the reactivity of barium azide.
[62]		Effect of trimethyl ammonium perchlorate on the decomposition and combustion of KP and KP Pu propellants.
[63]		Effect of variables on the ignition delays of hydrazonelnitric acid systems.
[64]		Effect on intentional impurities, ageing, particle size and pre irradiation on the TD of hydrazinium diperchlorate.
[65]		Electrical conduction in ammonium and alkali metal perchlorates.
[66]		Electrical conduction in ammonium perchlorate.
[67]		Electrical conductivity of ammonium perchlorate.
[68]		Electronic adsorption spectra of metallic azides, perchlorates and nitrates and their related explosive properties.
[69]		Enthalpy and activation energy for the sublimation of solides involving proton transfer process.
[70]		Eo w temperature formation of ferrites using metal oxalate hydrazinate precursor.
[71]		Explosive sensitivity of methyl ammonium perchlorates.
[72]		Frequency dependence of the electrical conductivity of MC104 (M = K, Rb, Cs) compounds.
[73]		Hydrogen plasma induced color centers in barium flouride.
[74]		Hydrogen plasma treated calcium flouride.
[75]		Hypergolic ignition of various hydrazones with nitric acid.
[76]		Ignition delay studies of hybrid propellants.
[77]		Incomplete decomposition of alkali metal azides.
[78]		Incomplete decomposition of ammonium oxalate.
[79]		Indirect application of radioactive nuclei in analytical chemistry.
[80]		Indirect application of radioactive nuclei in analytical chemistry.
[81]		Influence of electric field on the low temperature thermal decomposition of ammonium perchlorate/polystyrene propellants.
[82]		Influence of growth parameters on the reactivity of ammonium perchlorate.
[83]		Initiation reactions in thermal polymerization of vinyl monomers in the molten state.
[84]		Ionic conductance of potassium azide in the solid state.
[85]		Is ammonium perchlorate in solid propellants under strain.
[86]		Kinetic studies on thermal decomposition of polystyrene peroxide.
[87]		Kinetics and mechanism of thermal decomposition of nitronium perchlorate.
[88]		Kinetics and mechanism of thermal decomposition of tetramethyl ammonium nitrate.
[89]		Lithium and sodium initiated transition polymerization of acrylamide.
[90]		Low temperature cobaltite formation using mixed metal oxalate hydrazinate precursor.
[91]		Low temperature process for ferrite synthesis.
[92]		Mass spectrometric study of the thermal decomposition of ammonium perchlorate.
[93]		Mass spectrometric study of the thermal decomposition of ammonium perchlorate.
[94]		Mechanism for controlling the reactivity of alpha PbN.
[95]		Mechanism of ageing of composite solid propellants.
[96]		Mechanism of catalytic activity of metal oxides and chromites on ammonium perchlorate pyrolysis.
[97]		Mechanism of the oxidative degradation of the binders during the ageing of composite solid propellants.
[98]		Mechanism of uptake of impurities by azide crystals.
[99]		Mechanistic studies on composite solid propellants.
[100]		Mechanistic studies on pyrolysis and combustion of polystyrene/ammonium prechlorate propellants in presence of transition metal oxides.
[101]		Mechanoformation of ammonium perchlorate solid solutions.
[102]		Metal perchlorate ammines: Thermal and infrared studies.
[103]		Metallic lithium initiated bulk polymerization of acrylonitrite.
[104]		Molybdenum trioxide/silicon photodiodes.
[105]		Nature of water in hydrazine salt hydrates.
[106]		On colorization of polyacrylonitrile A NMR study.
[107]		Optical absorption of electrolytically colored single crystals of yttria stablized zirconia.
[108]		Patent: A new oxidizer for solid composite solid propellant.
[109]		Patent: Air bag inflator gas compositions and inflator containing the same.
[110]		Patent: Combustible Coatings as Protective delay barriers.
[111]		Patent: Combustible Delay Barriers.
[112]		Patent: Decomposition via Microwave Induced kotational Excitation Technology (MIRET).
[113]		Patent: Low temperature synthesis of fine particles of ferrite ceramic materials, metals, and alloys.
[114]		Patent: Low thrust force generator for space vehicle altitude control.
[115]		Phoioelectrochemical cells incorporating molten salt electrolyte systems.
[116]		Photochemical decomposition of barium azide.
[117]		Photochemical decomposition of nitronium perchlorate.
[118]		Photochemical decomposition of silver perchlorate.
[119]		Photodecomposition of alpha PbN, in the solid state.
[120]		Photodecomposition of ammonium oxalate.
[121]		Photodecomposition of aqueous solutions of barium azide.
[122]		Photodecomposition of solid metal azides.
[123]		Photosynthetic production of H2 and H2O, on semiconducting oxide grains in aqueous solutions.
[124]		Physico chernical properties of 1,2,5,7 tetrazacyclooctane (HMX), Electrical conductance, Part 1.
[125]		Physico chemical properties of 1,3,5,7 tetrazacyclooctane (HMX), Spectra & LIM damage phenoma, Part 2.
[126]		Preparation and characterization of hydrazinium derivatives, Part 1.
[127]		Preparation and characterization of hydrazinium derivatives, Part 2.
[128]		Quantitative assessment of the condensed phase heats of reaction in a double base propellant.
[129]		Reaction intermediates during combustion and decomposition of some model solid rocket fuels.
[130]		Relationship between enthalpy of point defect formation and other thermochemical properties of ionic salts.
[131]		Role of alloys in the thermal decomposition and combustion of ammonium perchlorate.
[132]		Role of aluminum magnesium alloys in humid aging of composite solid propellants.
[133]		Role of condensed phase reaction in the ignition of composite solid propellants.
[134]		Role of crystil imperfections in the thermal decomposition of sodium azide.
[135]		Role of impurities in the sensitization of ammonium nitrate.
[136]		Role of metal perchlorate ammines on AP decomposition.
[137]		Role of point defects in the thermal decomposition of ammonium perchlorate.
[138]		Role of transition metal flourides in ammonium perchlorate decomposition.
[139]		Sensitivity behavior of barium azide.
[140]		Simultaneous DTA TGA techniques for detonation characterization.
[141]		Simultaneous DTA, TGA technique to characterize the explosivity of lead azide.
[142]		Solid state thermal polymerization of sodium acrylate.
[143]		Some features of solid propellant chemistry.
[144]		Some observations of sublimation and decomposition of ammonium perchlorate.
[145]		Some observations of the thermal stability of double base propellants.
[146]		Storage stability of solid rocket fuels, Effect of temperature, Part 1.
[147]		Storage stability of solid rocket fuels, Effect of oxidizer loadings, Part 2.
[148]		Structure and explosivity sensitivity relation in ring substituted arlyammonium perchlorates.
[149]		Structure and thermal stability relationship in arylk ammonium nitrate.
[150]		Studies on the combustion of solid hydrazones with nitric acid.
[151]		Studies on thermal decomposition of double base propellants.
[152]		Studies on vacuum pyrolysis of ammonium perchlorates and ammonium perchlorate/polystyrene propellant in the presence of transition metal oxides.
[153]		Study of the chemistry of scandium on a tracer scale with scandium 46.
[154]		Study of the explosive behavior of barium azide.
[155]		Sublimation and thermal decomposition of ammonium perchlorate.
[156]		Sublimation of ammonium perchlorate.
[157]		Synthesis and characterization of a new flouride derivative of hydrazine, N2H,HF.
[158]		Synthesis and characterization of diperchlorate dihydrazine chromium (III) perchlorate.
[159]		Synthesis and characterization of metal hydrazine nitrate, azide and perchlorate complexes.
[160]		Synthesis of 1,3,546s (2 methyl l aziridinyl) methyl benzene.
[161]		T differential scanning calorimetry study of the MCIO, (M Na, K, Rb, Cs and NH,) system.
[162]		The effect of bis thieacetylacetonato Nickel (11) compounds on thermal oxidation of polyethylene.
[163]		The role of defects in the thermal decomposition of barium azide.
[164]		The role of lithium and magnesium perchlorate ammines on ammonium perchlorate decomposition.
[165]		The role of transition metal oxides in the decomposition and explosion of aydammonium perchlorates.
[166]		Thermal analysis of hydrazine perchlorate hydrates and ammoniates.
[167]		Thermal analysis of hydrazinium metal sulphates and their hydrazinates.
[168]		Thermal analysis of hydroxylammonium perchlorate.
[169]		Thermal analysis of transition metal perchlorate hydrates.
[170]		Thermal decomposition and combustion of amine: AP condensed mixtures.
[171]		Thermal decomposition and combustion studies on potassium perchlorate/polystyrene propellant systems.
[172]		Thermal decomposition and ignition of coal.
[173]		Thermal decomposition of HMX.
[174]		Thermal decomposition of alkali metal perchlorates.
[175]		Thermal decomposition of alpha PbN.
[176]		Thermal decomposition of ammonium perchlorate at low temperatures.
[177]		Thermal decomposition of ammonium perchlorate based propellants.
[178]		Thermal decomposition of hydrazinium diperchlorate.
[179]		Thermal decomposition of hydrazinium monoperchlorate in solid state.
[180]		Thermal decomposition of hydrazinium monoperchlorate in the molten state.
[181]		Thermal decomposition of methyl ammonium perchlorates.
[182]		Thermal decomposition of nitronium perchlorate.
[183]		Thermal decomposition of sodium azide.
[184]		Thermal decomposition of UAIH.
[185]		Thermal decomposition studies on ammonium perchlorate polybutadiene composite propellants.
[186]		Thermal decomposition studies on composite solid propellants.
[187]		Thermal degradation of polystyrene.
[188]		Thermal polymerisation of acrylamide in solid state.
[189]		Thermal reactivity of ammonium perchlorate recrystallized from liquid ammonia.
[190]		Thermal reactivity of ammonium perchlorates crystallized from solutions having different pH.
[191]		Thermal reactivity of double based rocket propellants.
[192]		Thermal reactivity of methyl ammonium nitrates.
[193]		Thermoanalysis of ammonium perchlorate and iodiurn nitrate mixtures.
[194]		Thermoanalytical studies of hydrazidocarbonate derivatives.
[195]		Thermobarogravimetric (T13GA) technique to characterize sublimation processes I.
[196]		Thermochernistry and lower combustion limit of ammonium perchlorate in presence of methlammonium perchlorates.
[197]		Thermodynamical data on inorganic oxidizers and polymers.
[198]		U.V. Photon induced color centers in ammonium perchlorate.