Abstract: A chemical formulation having at least one solvent and a chemical having the structure of Formula (I): where R includes at least one aromatic moiety, and X and X? may both or independently include an aromatic moiety, an aliphatic moiety, or a hydrogen.

Abstract: Methods of producing a carbon matrix composite are provided which include preparing a carbon matrix composite precursor comprising at least one carbon-based reinforcement material and a cured thermoset polymer matrix comprising a chemical composition in accordance with Formula I where n and m are integers, at least one of R1 or R2 comprises an aromatic moiety, and X is selected from the group consisting of CH2, NH, O, S, SO2, and combinations thereof. The methods further include heating the carbon matrix composite precursor in air to a first processing temperature of between 300° C. and 500° C. to form a carbon matrix composite intermediate, and heating the carbon matrix composite intermediate in nitrogen to a second processing temperature of between 900° C. to 1650° C. and holding at the second processing temperature for at least 1 hour in an inert gas environment to form the carbon matrix composite.

Abstract: Chemical compositions are provided having the structure of Formula (I): where R includes at least one aromatic moiety, and X and X? may both or independently include an aromatic moiety, an aliphatic moiety, or a hydrogen. Additionally, chemical formulations are provided which include the chemical composition having the structure of Formula (I) and at least one solvent.

Abstract: Chemical compositions are provided having a structure in accordance with with the R group having a structure in accordance with R1 includes an alkyl group, R2 includes an alkylene group, and R3 includes an alkylene group in accordance with (CH2)x with x?2, and R4 includes the structure of Formula (II) or Formula (III). R5 includes a meta-substituted or para-substituted phenyl moiety. Additionally, elastomers produced by cross-linking the chemical composition of Formula (I) are provided.

Abstract: Chemical compositions are provided having a structure in accordance with with the R group having a structure in accordance with R1 includes an alkyl group, R2 includes an alkylene group, and R3 includes an alkylene group in accordance with (CH2), with x?2, and R4 includes the structure of Formula (II) or Formula (III). R5 includes a meta-substituted or para-substituted phenyl moiety. Additionally, elastomers produced by cross-linking the chemical composition of Formula (I) are provided.

Abstract: Chemical compositions are provided having the structure of Formula (I): where R includes at least one aromatic moiety, and X and X? may both or independently include an aromatic moiety, an aliphatic moiety, or a hydrogen. Additionally, chemical formulations are provided which include the chemical composition having the structure of Formula (I) and at least one solvent.

Abstract: Chemical compositions are provided that include at least one of Formula I or Formula II: where n and m are integers, at least one of R1 or R2 comprises an aromatic moiety, and X is selected from the group consisting of CH2, NH, O, S, SO2, and combinations thereof. Composites formed from the chemical composition and at least one reinforcement material are also provided.

Abstract: An electrically responsive polymer having a electrically responsive bulk polymer matrix, the electrically responsive polymer bulk polymer matrix comprising a base polymer matrix; an electrically responsive component, wherein the electrically responsive component comprises a disulfide, an oligosulfide moiety, or a plurality of thiol moieties; and an electrolyte salt; wherein the electrically responsive polymer is configured to transition from a first elastic modulus to a second elastic modulus when an external stimulus is applied to the electrically responsive polymer.

Abstract: Embodiments of a reversible thermoset adhesive formed by incorporating thermally-reversible cross-linking units and a method for making the reversible thermoset adhesive are provided. One approach to formulating reversible thermoset adhesives includes incorporating dienes, such as furans, and dienophiles, such as maleimides, into a polymer network as reversible covalent cross-links using Diels Alder cross-link formation between the diene and dienophile. The chemical components may be selected based on their compatibility with adhesive chemistry as well as their ability to undergo controlled, reversible cross-linking chemistry.

Abstract: A method of making shape memory chemical mechanical polishing pads is provided, wherein the shape memory chemical mechanical polishing pads comprise a polishing layer in a densified state. Also provided is a method for using the shape memory chemical mechanical polishing pads to polish substrates.

Abstract: A method of making shape memory chemical mechanical polishing pads is provided, wherein the shape memory chemical mechanical polishing pads comprise a polishing layer in a densified state. Also provided is a method for using the shape memory chemical mechanical polishing pads to polish substrates.

Abstract: Shape memory chemical mechanical polishing pads are provided, wherein the shape memory chemical mechanical polishing pads comprise a polishing layer in a densified state. Also provided are methods of making the shape memory chemical mechanical polishing pads and for using them to polish substrates.

Abstract: The shape memory polymers disclosed are a reaction product of at least one reagent containing two active amino-hydrogen or two active phenolic-hydrogen with at least one multifunctional cross linking reagent which contains at least three or more active amino- or phenolic-hydrogen or is a reagent containing at least three glycidyl ether moieties which is then further mixed with at least one diglycidyl ether reagent whereupon the resulting mixture is cured and has a glass transition temperature higher than 00 C. This reaction creates crosslinking between the monomers and polymers such that during polymerization they form a crosslinked thermoset network.

Abstract: This disclosure covers a new methodology to produce high performance, high temperature, thermoset resins having shape memory characteristics based on cyanate ester resins. This methodology is based on pericyclic polycyclotrimerizations by utilizing a heretofore unknown polymerization mechanism based on equilibrium controlled condensation and cyclization. A mono-functional cyanate ester resin is reacted with at least one molecule terminated with a moiety containing an active hydrogen. One example of molecules with a moiety terminated with an active hydrogen are amine terminated dimethylsiloxane. The resulting compound is heated and reacted with a difunctional cyanate ester resin and cured. The Tg of the final Cyanate Ester SMP can be matched to specific requirements by adjusting the ratio of the previous said elements and/or the addition of other agents to adjust the physical properties of the final Cyanate Ester SMP.

Abstract: Shape memory chemical mechanical polishing pads are provided, wherein the shape memory chemical mechanical polishing pads comprise a polishing layer in a densified state. Also provided are methods of making the shape memory chemical mechanical polishing pads and for using them to polish substrates.

Abstract: The shape memory polymers disclosed are a reaction product of at least one reagent containing two active amino-hydrogen or two active phenolic-hydrogen with at least one multifunctional cross linking reagent which contains at least three or more active amino- or phenolic-hydrogen or is a reagent containing at least three glycidyl ether moieties which is then further mixed with at least one diglycidyl ether reagent whereupon the resulting mixture is cured and has a glass transition temperature higher than 00C. This reaction creates crosslinking between the monomers and polymers such that during polymerization they form a crosslinked thermoset network.