Abstract: A temperature control system may include a temperature control device, an electrical wall box having a hole for passing a wire or cable into the wall box, and a gland configured to be inserted into the hole of the wall box. The temperature control device may include a temperature sensor. The wall box may be configured to be mounted to a wall. The temperature control device may be configured to be mounted to the wall box such that the temperature sensor is located within the wall box. A wire or cable may be passed from a wall cavity of the wall, through the gland once inserted into the hole of the wall box, into an interior of the wall box, and attached to the temperature control device. The gland and the wall box may be configured to prevent air within the wall cavity from entering the wall box when the wire or cable is passed into the wall box.

Abstract: A control device for controlling power delivered to an electrical load may illuminate an area around a button of the control device, such as a gap formed between the button and an opening of a faceplate of the control device. The control device may illuminate the gap to provide a nightlight feature, to provide feedback (e.g., a status of the electrical load), and/or to indicate a selected preset. The button may have a cap portion that may be actuated by a user and a diffuser portion that may contact a rear surface of the cap portion and may conduct light emitted by an internal light source to illuminate the gap around the button.

Abstract: A temperature control system may include a temperature control device, an electrical wall box having a hole for passing a wire or cable into the wall box, and a gland configured to be inserted into the hole of the wall box. The temperature control device may include a temperature sensor. The wall box may be configured to be mounted to a wall. The temperature control device may be configured to be mounted to the wall box such that the temperature sensor is located within the wall box. A wire or cable may be passed from a wall cavity of the wall, through the gland once inserted into the hole of the wall box, into an interior of the wall box, and attached to the temperature control device. The gland and the wall box may be configured to prevent air within the wall cavity from entering the wall box when the wire or cable is passed into the wall box.

Abstract: A control device for controlling power delivered to an electrical load may illuminate an area around a button of the control device, such as a gap formed between the button and an opening of a faceplate of the control device. The control device may illuminate the gap to provide a nightlight feature, to provide feedback (e.g., a status of the electrical load), and/or to indicate a selected preset. The button may have a cap portion that may be actuated by a user and a diffuser portion that may contact a rear surface of the cap portion and may conduct light emitted by an internal light source to illuminate the gap around the button.

Abstract: A wall box may provide adjustable support for a control device, such as a keypad, to allow for level alignment of the control device when mounted to the wall box. The wall box may have an adjustable support frame to which the control device may be mounted. When the control device is mounted to the support frame of the wall box, the support frame may be rotated to adjust the alignment of the control device. In addition, the wall box may comprise one or more projections configured to be received in respective detents in notched surfaces of the control device to allow for adjustment of the alignment of the control device. Further, the wall box may have a modular assembly and may be constructed from a central portion and two side portions at the time of installation of the wall box.

Abstract: A control device for controlling power delivered to an electrical load may illuminate an area around a button of the control device, such as a gap formed between the button and an opening of a faceplate of the control device. The control device may illuminate the gap to provide a nightlight feature, to provide feedback (e.g., a status of the electrical load), and/or to indicate a selected preset. The button may have a cap portion that may be actuated by a user and a diffuser portion that may contact a rear surface of the cap portion and may conduct light emitted by an internal light source to illuminate the gap around the button.

Abstract: A temperature control system may include a temperature control device, an electrical wall box having a hole for passing a wire or cable into the wall box, and a gland configured to be inserted into the hole of the wall box. The temperature control device may include a temperature sensor. The wall box may be configured to be mounted to a wall. The temperature control device may be configured to be mounted to the wall box such that the temperature sensor is located within the wall box. A wire or cable may be passed from a wall cavity of the wall, through the gland once inserted into the hole of the wall box, into an interior of the wall box, and attached to the temperature control device. The gland and the wall box may be configured to prevent air within the wall cavity from entering the wall box when the wire or cable is passed into the wall box.

Abstract: Provided herein are compositions and methods for generating an immunogenic response in humans. Further provided are methods for designing such compositions, e.g., for vaccines.

Abstract: A device for collecting a biological sample from a semi-solid surface. The device has a shaft with a proximate end and a distal end and a tip integrated with the shaft at the proximate end. The tip has a surface adapted to collect microorganisms thereon or release microorganism from, or both, wherein the adapted surface comprises at least one feature of a recess or extension to increase surface area of the tip and collect microorganisms thereon. Examples of such features include microfeatures with dimensions of about 1000 ?m or less. Other examples include a pipette tip.

Abstract: Provided herein are compositions and methods for generating an immunogenic response in humans. Such compositions include an immunogenic biological agent encompassed by (ii) an agent that directs delivery of the immunogenic biological agent to the ileum of the human, wherein agent (ii) is an enteric coating (e.g., Eudragit®) that has a threshold pH 5.8-6.8. Further provided are methods for designing such compositions, e.g., for vaccines.

Abstract: A stapler comprising a base, a cartridge in pivotal relation to the base at a cartridge pivot axis, the cartridge configured to contain at least two rows of staples and a lever arm in pivotal relation to the base at a lever pivot axis. In an embodiment, the device includes a moveable driving member for selectively positioning the driving member in driving relation to each of the at least two rows for driving staples from the at least two rows. In operation, this invention permits an individual to load a stapler with multiple sized staples. This eliminates the need to continuously load and unload different sized staples from a single row stapler.

Abstract: A system and method of monitoring triggers that alert a user of a location based reminder. At least one trigger may be at least one class having a plurality of members. The triggers are stored. The device monitors the location of the device in relation to the at least one trigger. An alert is executed when the device is within a threshold of the trigger. The device will continue to monitor outstanding triggers.

Abstract: The present invention provides chimeric adenoviral vectors and methods for using the vectors to elicit an immune response to an antigen of interest.

Abstract: In certain embodiments, a system for cooling components of an electronic device includes a chassis having a base, sides, and a removable cover disposed over the sides; a first component, a second component, and a third component disposed in the chassis; and a duct disposed in the chassis. In some embodiments, a duct includes a passage, an inlet to the passage, and an outlet from the passage, wherein the passage is disposed over the first component but not over the second and third components; and an upper member disposed against the removable cover lengthwise along the duct, wherein the duct and the upper member are configured to separate the second component from the third component in substantially different regions within the chassis. In particular embodiments, the system also includes a fan disposed angularly in the duct, such that the fan can provide an airflow in an angular direction relative to the first component.

Abstract: A system and method that enables installation of media devices in a chassis. The chassis has an internal cavity defined by a plurality of walls. Additionally, a first media device has a first external width dimension and a second media device has a second external width dimension. The second external width dimension is different than the first external width dimension. A plurality of mounting features are connected to the plurality of walls to hold the first media device and the second media device in a plurality of orientations relative to the chassis.

Abstract: The present invention relates to a bracket system for mounting a device bracket within an assembly comprising a plurality of chassis brackets, a mounting bracket assembly and a chassis base with a plurality of tabs. The chassis brackets have slots and the brackets are attached to the chassis base of the assembly. The mounting bracket assembly has a plurality of tapered mounting bracket assembly slots, and a plurality of horizontally-protruding pegs.

Abstract: The present invention provides compositions and methods for eliciting an immune response and compositions and methods for transfecting antigen presenting cells.