Abstract: A system and method of micro dosing containers on a conveying system is disclosed. The system includes a mixing tank to maintain suspended solids in a mixture; a dosing assembly to inject micro-doses of the mixture into bottles; a recirculation assembly to circulate the mixture from the supply tank to the dosing assembly and back to the supply tank; a power and controls operation assembly to supply the system with power, to provide the system with electromechanical control and/or to provide a user interface; and a stand to hold at least the supply tank, the portable dosing assembly, the recirculation assembly and/or the power and/or controls operation assembly.

Abstract: A system and method of micro dosing containers on a conveying system is disclosed. The system includes a mixing tank to maintain suspended solids in a mixture; a dosing assembly to inject micro-doses of the mixture into bottles; a recirculation assembly to circulate the mixture from the supply tank to the dosing assembly and back to the supply tank; a power and controls operation assembly to supply the system with power, to provide the system with electromechanical control and/or to provide a user interface; and a stand to hold at least the supply tank, the portable dosing assembly, the recirculation assembly and/or the power and/or controls operation assembly.

Abstract: A system and method of micro dosing containers on a conveying system is disclosed. The system includes a mixing tank to maintain suspended solids in a mixture; a dosing assembly to inject micro-doses of the mixture into bottles; a recirculation assembly to circulate the mixture from the supply tank to the dosing assembly and back to the supply tank; a power and controls operation assembly to supply the system with power, to provide the system with electromechanical control and/or to provide a user interface; and a stand to hold at least the supply tank, the portable dosing assembly, the recirculation assembly and/or the power and/or controls operation assembly.

Abstract: A system and method of micro dosing containers on a conveying system is disclosed. The system includes a supply tank to maintain suspended solids in a mixture; a dosing assembly to inject micro-doses of the mixture into bottles; a recirculation assembly to circulate the mixture from the supply tank to the dosing assembly and back to the supply tank; a power and controls operation assembly to supply the system with power, to provide the system with electromechanical control and/or to provide a user interface; and a stand to hold at least the supply tank, the portable dosing assembly, the recirculation assembly and/or the power and/or controls operation assembly.

Abstract: A system and method of micro dosing containers on a conveying system is disclosed. The system includes a mixing tank to maintain suspended solids in a mixture; a dosing assembly to inject micro-doses of the mixture into bottles; a recirculation assembly to circulate the mixture from the supply tank to the dosing assembly and back to the supply tank; a power and controls operation assembly to supply the system with power, to provide the system with electromechanical control and/or to provide a user interface; and a stand to hold at least the supply tank, the portable dosing assembly, the recirculation assembly and/or the power and/or controls operation assembly.

Abstract: A system and method of micro dosing containers on a conveying system is disclosed. The system includes a supply tank to maintain suspended solids in a mixture; a dosing assembly to inject micro-doses of the mixture into bottles; a recirculation assembly to circulate the mixture from the supply tank to the dosing assembly and back to the supply tank; a power and controls operation assembly to supply the system with power, to provide the system with electromechanical control and/or to provide a user interface; and a stand to hold at least the supply tank, the portable dosing assembly, the recirculation assembly and/or the power and/or controls operation assembly.

Abstract: A sensory aroma glass is disclosed. According to one embodiment, an apparatus comprises a fluid barrier; and a fluid container designed for containing a fluid. The fluid barrier is in contact with the rim or internal or external sidewall of the fluid container. The fluid barrier extends into the fluid container. The fluid barrier has an opening that allows aroma of the fluid to escape from the fluid container without allowing the fluid to escape from the fluid container.

Abstract: A tilted sensory aroma glass is disclosed. According to one embodiment, an apparatus includes a fluid container having a rim and a base. The base is parallel to and in contact with a surface when the fluid container is placed on the surface. The rim and the base lie on intersecting planes. The apparatus further includes a fluid barrier having an opening. The fluid barrier is in contact with the fluid container and extends into the fluid container. The opening is configured to allow an aroma of a fluid in the fluid container to escape through the opening. The aroma glass allows consumers to view and smell the liquid contents of the aroma glass, but prevents consumers from consuming the liquid contents.

Abstract: A tilted sensory aroma glass is disclosed. According to one embodiment, an apparatus includes a fluid container having a rim and a base. The base is parallel to and in contact with a surface when the fluid container is placed on the surface. The rim and the base lie on intersecting planes. The apparatus further includes a fluid barrier having an opening. The fluid barrier is in contact with the fluid container and extends into the fluid container. The opening is configured to allow an aroma of a fluid in the fluid container to escape through the opening. The aroma glass allows consumers to view and smell the liquid contents of the aroma glass, but prevents consumers from consuming the liquid contents.

Abstract: Methods disclosed herein include: (a) forming a channel in a sample, the channel extending one micron or more along a direction oriented at an angle to a surface of the sample; (b) exposing a portion of the sample above the channel to a particle beam to cause particles to leave the surface of the sample; and (c) forming an image of the sample based on particles that leave the surface.

Abstract: A sensory aroma glass is disclosed. According to one embodiment, an apparatus comprises a fluid barrier; and a fluid container designed for containing a fluid. The fluid barrier is in contact with the rim or internal or external sidewall of the fluid container. The fluid barrier extends into the fluid container. The fluid barrier has an opening that allows aroma of the fluid to escape from the fluid container without allowing the fluid to escape from the fluid container.

Abstract: A tilted sensory aroma glass is disclosed. According to one embodiment, an apparatus includes a fluid container having a rim and a base. The base is parallel to and in contact with a surface when the fluid container is placed on the surface. The rim and the base lie on intersecting planes. The apparatus further includes a fluid barrier having an opening. The fluid barrier is in contact with the fluid container and extends into the fluid container. The opening is configured to allow an aroma of a fluid in the fluid container to escape through the opening. The aroma glass allows consumers to view and smell the liquid contents of the aroma glass, but prevents consumers from consuming the liquid contents.

Abstract: A sensory aroma glass is disclosed. According to one embodiment, an apparatus comprises a fluid barrier; and a fluid container designed for containing a fluid. The fluid barrier is in contact with the rim or internal or external sidewall of the fluid container. The fluid barrier extends into the fluid container. The fluid barrier has an opening that allows aroma of the fluid to escape from the fluid container without allowing the fluid to escape from the fluid container.

Abstract: A sensory aroma glass is disclosed. According to one embodiment, an apparatus comprises a fluid barrier; and a fluid container designed for containing a fluid. The fluid barrier is in contact with the rim or internal or external sidewall of the fluid container. The fluid barrier extends into the fluid container. The fluid barrier has an opening that allows aroma of the fluid to escape from the fluid container without allowing the fluid to escape from the fluid container.

Abstract: Disclosed herein are methods that include: (a) exposing a sample in a chamber to a first gas, where the first gas reacts with surface contaminants on the sample to form a second gas; (b) removing at least a portion of the second gas from the chamber; and (c) exposing the sample to a charged particle beam to cause a plurality of particles to leave the sample and detecting at least some of the plurality of particles. The charged particle beam can include particles having a molecular weight of 40 atomic mass units or less.

Abstract: A sensory aroma glass is disclosed. According to one embodiment, an apparatus comprises a fluid barrier; and a fluid container designed for containing a fluid. The fluid barrier is in contact with the rim or internal or external sidewall of the fluid container. The fluid barrier extends into the fluid container. The fluid barrier has an opening that allows aroma of the fluid to escape from the fluid container without allowing the fluid to escape from the fluid container.

Abstract: Methods disclosed herein include: (a) forming a channel in a sample, the channel extending one micron or more along a direction oriented at an angle to a surface of the sample; (b) exposing a portion of the sample above the channel to a particle beam to cause particles to leave the surface of the sample; and (c) forming an image of the sample based on particles that leave the surface.

Abstract: Disclosed herein are methods that include: (a) exposing a sample in a chamber to a first gas, where the first gas reacts with surface contaminants on the sample to form a second gas; (b) removing at least a portion of the second gas from the chamber; and (c) exposing the sample to a charged particle beam to cause a plurality of particles to leave the sample and detecting at least some of the plurality of particles. The charged particle beam can include particles having a molecular weight of 40 atomic mass units or less.

Abstract: A method of depositing tensile or compressively stressed silicon nitride on a substrate is described. Silicon nitride having a tensile stress with an absolute value of at least about 1200 MPa can be deposited from process gas comprising silicon-containing gas and nitrogen-containing gas, maintained in an electric field having a strength of from about 25 V/mil to about 300 V/mil. The electric field is formed by applying a voltage at a power level of less than about 60 Watts across electrodes that are spaced apart by a separation distance that is at least about 600 mils. Alternatively, silicon nitride having a compressive stress with an absolute value of at least about 2000 MPa can be formed in an electric field having a strength of from about 400 V/mil to about 800 V/mil.

Abstract: A method of depositing tensile or compressively stressed silicon nitride on a substrate is described. Silicon nitride having a tensile stress with an absolute value of at least about 1200 MPa can be deposited from process gas comprising silicon-containing gas and nitrogen-containing gas, maintained in an electric field having a strength of from about 25 V/mil to about 300 V/mil. The electric field is formed by applying a voltage at a power level of less than about 60 Watts across electrodes that are spaced apart by a separation distance that is at least about 600 mils. Alternatively, silicon nitride having a compressive stress with an absolute value of at least about 2000 MPa can be formed in an electric field having a strength of from about 400 V/mil to about 800 V/mil.