Patent classifications
C09D177/12
Self-mineralizing multifunctional coating composition
A coating composition includes alkaline mineral particles including an oxide of an alkaline earth metal and an amine-containing polymer. The amine-containing polymer is adsorbed on the alkaline mineral particles. Forming a coating composition includes at least partially coating alkaline mineral particles with an amine-containing polymer and dispersing the alkaline mineral particles in a liquid to yield the coating composition. The alkaline mineral particles include an oxide of an alkaline earth metal.
SELF-MINERALIZING MULTIFUNCTIONAL COATING COMPOSITION
A coating composition includes alkaline mineral particles including an oxide of an alkaline earth metal and an amine-containing polymer. The amine-containing polymer is adsorbed on the alkaline mineral particles. Forming a coating composition includes at least partially coating alkaline mineral particles with an amine-containing polymer and dispersing the alkaline mineral particles in a liquid to yield the coating composition. The alkaline mineral particles include an oxide of an alkaline earth metal.
SELF-MINERALIZING MULTIFUNCTIONAL COATING COMPOSITION
A coating composition includes alkaline mineral particles including an oxide of an alkaline earth metal and an amine-containing polymer. The amine-containing polymer is adsorbed on the alkaline mineral particles. Forming a coating composition includes at least partially coating alkaline mineral particles with an amine-containing polymer and dispersing the alkaline mineral particles in a liquid to yield the coating composition. The alkaline mineral particles include an oxide of an alkaline earth metal.
METHODS OF DEPOSITING THERMALLY CONDUCTIVE POLYMERIC FILMS
Methods of depositing thermally conductive polymeric films are described. Each of the methods include flowing a first precursor over a substrate; removing a first precursor effluent comprising the first precursor; flowing a second precursor over the substrate to react with the first precursor to form the polymeric film on the substrate; and removing a second precursor effluent comprising the second precursor. The methods may include performing a metal deposition process. The methods may include performing a post-treatment process, such as a heat treatment process.
METHODS OF DEPOSITING THERMALLY CONDUCTIVE POLYMERIC FILMS
Methods of depositing thermally conductive polymeric films are described. Each of the methods include flowing a first precursor over a substrate; removing a first precursor effluent comprising the first precursor; flowing a second precursor over the substrate to react with the first precursor to form the polymeric film on the substrate; and removing a second precursor effluent comprising the second precursor. The methods may include performing a metal deposition process. The methods may include performing a post-treatment process, such as a heat treatment process.
Polymer powder for 3D printing
The invention is targeted mainly at a polymer powder suitable for 3D printing by sintering, comprising: (a) a polymer composition comprising at least one thermoplastic elastomer; (b) a pigment composition comprising at least one pigment exhibiting an absorbance of the light with a wavelength of 1000 nm, as measured according to the standard ASTM E1790, of less than 50%; and also, if appropriate, (c) one or more fillers or reinforcements; and (d) one or more additional additives. The invention is also targeted at a process for the preparation of said powder and also at the use of said powder for 3D printing by sintering. Finally, it is targeted at the use of a pigment exhibiting an absorbance of the light with a wavelength of 1000 nm, as measured according to the standard ASTM E1790, of less than 50% to improve the definition and/or the mechanical properties of the articles printed by a process of 3D printing by sintering of a thermoplastic elastomer powder.
Polymer powder for 3D printing
The invention is targeted mainly at a polymer powder suitable for 3D printing by sintering, comprising: (a) a polymer composition comprising at least one thermoplastic elastomer; (b) a pigment composition comprising at least one pigment exhibiting an absorbance of the light with a wavelength of 1000 nm, as measured according to the standard ASTM E1790, of less than 50%; and also, if appropriate, (c) one or more fillers or reinforcements; and (d) one or more additional additives. The invention is also targeted at a process for the preparation of said powder and also at the use of said powder for 3D printing by sintering. Finally, it is targeted at the use of a pigment exhibiting an absorbance of the light with a wavelength of 1000 nm, as measured according to the standard ASTM E1790, of less than 50% to improve the definition and/or the mechanical properties of the articles printed by a process of 3D printing by sintering of a thermoplastic elastomer powder.