Abstract: Embodiments of the present disclosure relate to a system and method for holding and warming food products. An example system includes a bottom surface and a food pan positioned on the bottom surface and comprising a plurality of food products. The system may further include a first lip extending over a first side of the food pan. The system may further include a second lip extending over a second side of the food pan. The first lip and the second lip may be spaced apart from one another to define a gap providing access to the plurality of food products. The first lip and the second lip may each comprise an airflow mechanism configured to direct a heated airflow through the plurality of food products.

Abstract: Methods and apparatus are provided for washing pipette tips, including the inside and outside of the pipette tip. Pipette wash devices comprise a main body comprising a wash chamber, a liquid channel, a gas channel, and a nozzle cavity, and a nozzle for providing a washing mist is positioned in the nozzle cavity and fluidically connected with the liquid channel and the gas channel. Methods of washing a pipette tip include inserting a pipette tip in a wash chamber; spraying a mist on an outside surface of the pipette tip; and blowing pressurized air or inert gas on the outside surface of the pipette tip, thereby washing and drying the pipette. Methods of washing a pipette tip also include passing one or more series of liquid slugs separated by gaseous gaps through the inside of the pipette tip.

Abstract: A substrate orientation device includes a frame that supports a substrate on which liquid is dispensed, for example as may relate to (bio)chemical microarray fabrication. The frame is movable to different positions, such as for mounting the substrate to the frame, depositing droplets on the substrate, and applying a bulk liquid to the substrate. The substrate orientation device may be movable to different locations, such as different liquid dispensing devices, for example a printer and a flow cell.

Abstract: A substrate orientation device includes a frame that supports a substrate on which liquid is dispensed, for example as may relate to (bio)chemical microarray fabrication. The frame is movable to different positions, such as for mounting the substrate to the frame, depositing droplets on the substrate, and applying a bulk liquid to the substrate. The substrate orientation device may be movable to different locations, such as different liquid dispensing devices, for example a printer and a flow cell.

Abstract: Embodiments of the present disclosure relate to a system and method for automated condiment container dispensing. An example system includes a cabinet including a plurality of shelves, a dispenser chute centrally aligned in front of a plurality of staging surfaces, and a controller. A respective shelf may be aligned with a staging surface, and an edge of the staging surface may be adjacent to the dispenser chute. The shelf may include at least one conveyor configured to receive at least one row of condiment containers and, upon activation, advance a respective row of condiment containers onto the staging surface. The shelf may include at least one actuator configured to, upon activation, advance at least a subset of the respective row of condiment containers from the staging surface into the dispenser chute. The controller may control activation of the at least one conveyor and the at least one actuator.

Abstract: A food transportation system and associated modular humidity control system are provided. An example system includes a body configured for attachment with a food storage housing. The body defines a closed circuit air flow path for circulating air through the food storage housing. The system also includes a humidity control element secured within the closed circuit air flow path that condenses moisture from the moisture-laden air passing through the closed circuit air flow path. The system further includes a condensation collector configured to receive fluid condensed from the moisture-laden air by the humidity control element.

Abstract: A system and method for monitoring a flow of a fluid on an external surface of a structure in motion. The structure defines an external side comprising the external surface and an internal side opposed from the external side. The system comprises a fluid dispensing device located on the internal side of the structure. The fluid dispensing device comprises the fluid and a conduit that directs the fluid onto the external surface of the structure. An observation device is located on the external side of the structure. The observation device is positioned to observe the flow of fluid on the external surface of the structure.

Abstract: A food transportation system and associated modular humidity control system are provided. An example system includes a body configured for attachment with a food storage housing. The body defines a closed circuit air flow path for circulating air through the food storage housing. The system also includes a humidity control element secured within the closed circuit air flow path that condenses moisture from the moisture-laden air passing through the closed circuit air flow path. The system further includes a condensation collector configured to receive fluid condensed from the moisture-laden air by the humidity control element.

Abstract: Novel tools and techniques are provided for implementing liquid level detection, particularly, for implementing pressure-based liquid level detection, and, more particularly, for implementing pressure-based liquid level detection that takes into account presence of foam, wet septum seals on a container, and/or pressure changes caused by a partially sealed septum of a container.

Abstract: Methods and apparatus are provided for washing pipette tips, including the inside and outside of the pipette tip. Pipette wash devices comprise a main body comprising a wash chamber, a liquid channel, a gas channel, and a nozzle cavity, and a nozzle for providing a washing mist is positioned in the nozzle cavity and fluidically connected with the liquid channel and the gas channel. Methods of washing a pipette tip include inserting a pipette tip in a wash chamber; spraying a mist on an outside surface of the pipette tip; and blowing pressurized air or inert gas on the outside surface of the pipette tip, thereby washing and drying the pipette. Methods of washing a pipette tip also include passing one or more series of liquid slugs separated by gaseous gaps through the inside of the pipette tip.

Abstract: A modular humidity control system is provided. An example system includes a body configured for attachment with a food storage housing. The body may define a closed circuit air flow path for circulating air through the food storage housing. The system also includes a desiccant element secured within the closed circuit air flow path that removes moisture from the moisture-laden air passing through the closed circuit air flow path, and stores the removed moisture. The system further includes a regeneration system that monitors a saturation of the desiccant element. In an instance in which the saturation of the desiccant element exceeds a saturation threshold, the regeneration system may evaporate at least a portion of the moisture stored by the desiccant element.

Abstract: A refrigerator storage system is described. The refrigerator storage system comprises a display having a home screen and a processor coupled to the display. The processor is configured to display at least one widget that provides an operation on the display, wherein the at least one widget comprises an interface portion providing direct access to a feature of the widget, wherein the direct access to the feature of the widget is provided from the home screen.

Abstract: A food transportation system and associated modular humidity control system are provided. An example system includes a body configured for attachment with a food storage housing. The body defines a closed circuit air flow path for circulating air through the food storage housing. The system also includes a humidity control element secured within the closed circuit air flow path that condenses moisture from the moisture-laden air passing through the closed circuit air flow path. The system further includes a condensation collector configured to receive fluid condensed from the moisture-laden air by the humidity control element.

Abstract: A food storage apparatus and a control method thereof are provided. The food storage apparatus includes a display; and a processor configured to control the display to display a user interface (UI) including one or more icons for controlling a execution screen of a application on a side region of the execution screen of the application while the execution screen of the application is displayed, wherein the application a view inside application providing an image obtained by photographing the inside of the food storage apparatus, and the processor controls the display to display the UI on the image obtained by photographing the inside of the food storage apparatus. Accordingly, the food storage apparatus may provide various services as compared to the conventional food storage apparatus, and may provide the UI for the service execution in the form that the user may easily and rapidly use the UI.

Abstract: A bottle cap includes a vacuum unit, a pressure relief unit and a drinking water pipe unit. After the bottle cap is combined with a bottle, the vacuum unit can vacuum the interior of the bottle to preserve food or drink inside the bottle, and the pressure relief unit may be operated to release the air pressure in the bottle in order to open the bottle cap, or open a flip cover of the drinking water pipe unit to drink the fruit juice or water from the bottle. The bottle cap has the effects of preserving the food or drink in the bottom and facilitating drinking.

Abstract: A food transportation system and associated modular humidity control system are provided. An example system includes a body configured for attachment with a food storage housing. The body defines a closed circuit air flow path for circulating air through the food storage housing. The system also includes a humidity control element secured within the closed circuit air flow path that condenses moisture from the moisture-laden air passing through the closed circuit air flow path. The system further includes a condensation collector configured to receive fluid condensed from the moisture-laden air by the humidity control element.

Abstract: A modular humidity control system is provided. An example system includes a body configured for attachment with a food storage housing. The body may define a closed circuit air flow path for circulating air through the food storage housing. The system also includes a desiccant element secured within the closed circuit air flow path that removes moisture from the moisture-laden air passing through the closed circuit air flow path, and stores the removed moisture. The system further includes a regeneration that monitors a saturation of the desiccant element. In an instance in which the saturation of the desiccant element exceeds a saturation threshold, the regeneration system may evaporate at least a portion of the moisture stored by the desiccant element.

Abstract: A bottle cap includes a vacuum unit, a pressure relief unit and a drinking water pipe unit. After the bottle cap is combined with a bottle, the vacuum unit can vacuum the interior of the bottle to preserve food or drink inside the bottle, and the pressure relief unit may be operated to release the air pressure in the bottle in order to open the bottle cap, or open a flip cover of the drinking water pipe unit to drink the fruit juice or water from the bottle. The bottle cap has the effects of preserving the food or drink in the bottom and facilitating drinking.

Abstract: A trigger has an upper board and a lower board. The lower board is detachably mounted on the upper board and has an open slot and an elongate board. The open slot is formed through an end of the lower board, and the elongate board is formed on the middle of the open slot and extends to the end of the lower board. The free end of the elongate board is bent perpendicularly to the elongate board. The door track with the trigger includes two installation boards, and two ribs are formed on the two installation boards respectively and extend toward each other. The upper board is mounted on the top surfaces of the ribs of the installation boards, and the lower board is mounted on the bottom surfaces of the ribs. When the sliding door collides with the trigger, the trigger can be deformed and prevents the slider of the sliding door from being restricted by the trigger.

Abstract: A trigger has an upper board and a lower board. The lower board is detachably mounted on the upper board and has an open slot and an elongate board. The open slot is formed through an end of the lower board, and the elongate board is formed on the middle of the open slot and extends to the end of the lower board. The free end of the elongate board is bent perpendicularly to the elongate board. The door track with the trigger includes two installation boards, and two ribs are formed on the two installation boards respectively and extend toward each other. The upper board is mounted on the top surfaces of the ribs of the installation boards, and the lower board is mounted on the bottom surfaces of the ribs. When the sliding door collides with the trigger, the trigger can be deformed and prevents the slider of the sliding door from being restricted by the trigger.