Abstract: Various implementations include a switch assembly that includes a housing and at least two printed circuit boards (PCBs) that are disposed within the housing and are axially arranged relative to each other. One or more force sensors are disposed on one of the PCBs, and, in some implementations, the one or more force sensors receive force input received by a touch overlay plate. Signals from the force sensors are processed to determine a magnitude, acceleration, and/or location of the force input, and a haptic feedback response is received by the touch overlay plate. The haptic feedback response is based on the force magnitude, acceleration, and/or location of input, according to some implementations. Axially arranging the PCBs reduces the footprint of the switch assembly and allows for the inclusion of more electrical components in the switch assembly, according to some implementations.

Abstract: A biodiffusion chamber for performing autologous cell vaccination is provided. The biodiffusion chamber is adapted for insertion into and removal from a subject. In some embodiments, the biodiffusion chamber comprises (i) a chamber body defining a hollow cavity and including a first surface and a second surface, (ii) a first semi-permeable membrane coupled to the first surface, (iii) a second semi-permeable membrane coupled to the second surface, and (iv) an element and/or feature adapted for removing the biodiffusion chamber from the subject. The first semi-permeable membrane and the second semi-permeable membrane are permeable to fluids and soluble factors but are not permeable to cells.

Abstract: A docking station for a medical device is described. In some examples, the docking station includes a frame and a base plate coupled to the frame. At least a portion of the base plate is coupled to a lower portion of the frame. In some examples, an electronic connector of the docking station is configured to couple to the medical device and to provide power to the medical device when the medical device is docked to the docking station. In some examples, a docking mechanism is coupled to an upper portion of the frame and configured to retain the medical device.

Abstract: A docking station for a medical device is described. In some examples, the docking station includes a frame and a base plate coupled to the frame. At least a portion of the base plate is coupled to a lower portion of the frame. In some examples, an electronic connector of the docking station is configured to couple to the medical device and to provide power to the medical device when the medical device is docked to the docking station. In some examples, a docking mechanism is coupled to an upper portion of the frame and configured to retain the medical device.

Abstract: The present application relates to isoquinoline compounds of Formula (I), to processes for their preparation and to compositions comprising them. More particularly, the present application relates to compound of Formula (I) that have activity as inhibitors of Bcl2-associated X protein (BAX) and/or Bcl-2 antagonist killer (BAK), and to their use in the treatment of diseases, disorders or conditions treatable by inhibiting BAX and/or BAK such as neurodegenerative diseases, disorders or conditions.

Abstract: Described herein are systems and methods for managing error detection in a message. A circuit can identify, based on an error detection configuration of the at least one circuit, a first portion of the message to be checked for errors before a second portion of the message is available to the at least one circuit, the first portion being less than all of the message to be checked for one or more errors. A circuit can analyze a number of bits of the first portion of the message using the at least one circuit and based on the error detection configuration. A circuit can, based on analyzing the first portion, determine whether the message includes the one or more errors. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: A straw gripper and tab separator for disposable cup or lid having a tab extending from the perimeter of the drink lid/cup, the tab having an exterior edge with a straw capture and alignment port to align the straw with said exterior edge, the straw capture and alignment port having a slit dividing the planar tab into a first tab section and second tab section, the first tab section having a first straw contact finger configured therein and the second tab section having a second straw contact finger configured therein, each straw contact finger separated by said slit, the straw contact fingers cutout endpoints converge on a second slit end, and the straw contact fingers are hingeably configured to removably secure the straw against a straw contact rim formed in the planar tab by a cutout of said first straw contact finger and said second straw contact finger.

Abstract: Various implementations include a switch assembly that includes a housing and at least two printed circuit boards (PCBs) that are disposed within the housing and are axially arranged relative to each other. One or more force sensors are disposed on one of the PCBs, and, in some implementations, the one or more force sensors receive force input received by a touch overlay plate. Signals from the force sensors are processed to determine a magnitude, acceleration, and/or location of the force input, and a haptic feedback response is received by the touch overlay plate. The haptic feedback response is based on the force magnitude, acceleration, and/or location of input, according to some implementations. Axially arranging the PCBs reduces the footprint of the switch assembly and allows for the inclusion of more electrical components in the switch assembly, according to some implementations.

Abstract: A straw gripper and tab separator for disposable cup or lid having a tab extending from the perimeter of the drink lid/cup, the tab having an exterior edge with a straw capture and alignment port to align the straw with said exterior edge, the straw capture and alignment port having a slit dividing the planar tab into a first tab section and second tab section, the first tab section having a first straw contact finger configured therein and the second tab section having a second straw contact finger configured therein, each straw contact finger separated by said slit, the straw contact fingers cutout endpoints converge on a second slit end, and the straw contact fingers are hingeably configured to removably secure the straw against a straw contact rim formed in the planar tab by a cutout of said first straw contact finger and said second straw contact finger.

Abstract: A mouth or lip guard for placement over the lid or rim of a can or container prior to consumption to establish a sanitary barrier between a drinker's contact points of mouth, and more specifically lips, and the lid, rim, and/or sidewalls of the beverage can or other container and with a straw capture and alignment port having a slit dividing the planar tab into a first tab section and second tab section, the first tab section having a first straw contact finger configured therein and the second tab section having a second straw contact finger configured therein, each straw contact finger separated by said slit, the straw contact fingers are hingeably configured to removably secure the straw against a straw contact rim formed in the planar tab by a cutout of said first straw contact finger and said second straw contact finger.

Abstract: A straw gripper and tab separator for disposable cup or lid having a tab extending from the perimeter of the drink lid/cup, the tab having an exterior edge with a straw capture and alignment port to align the straw with said exterior edge, the straw capture and alignment port having a slit dividing the planar tab into a first tab section and second tab section, the first tab section having a first straw contact finger configured therein and the second tab section having a second straw contact finger configured therein, each straw contact finger separated by said slit, the straw contact fingers cutout endpoints converge on a second slit end, and the straw contact fingers are hingeably configured to removably secure the straw against a straw contact rim formed in the planar tab by a cutout of said first straw contact finger and said second straw contact finger.

Abstract: Various implementations include a switch assembly that includes a housing and at least two printed circuit boards (PCBs) that are disposed within the housing and are axially arranged relative to each other. One or more force sensors are disposed on one of the PCBs, and, in some implementations, the one or more force sensors receive force input received by a touch overlay plate. Signals from the force sensors are processed to determine a magnitude, acceleration, and/or location of the force input, and a haptic feedback response is received by the touch overlay plate. The haptic feedback response is based on the force magnitude, acceleration, and/or location of input, according to some implementations. Axially arranging the PCBs reduces the footprint of the switch assembly and allows for the inclusion of more electrical components in the switch assembly, according to some implementations.

Abstract: Implementations include methods of controlling a haptic response comprising receiving a force signal from a force sensor; determining a force magnitude associated with the force signal; comparing the force magnitude with an initial threshold force amount to determine whether the force magnitude exceeds the initial threshold force amount; measuring an elapsed time that the force magnitude exceeds the initial threshold force amount; comparing the elapsed time to a minimum elapsed time; if the elapsed time being greater than the minimum elapsed time, generating a haptic feedback control signal, the haptic feedback control signal causing a haptic actuator to propagate a plurality of pressure waves at a propagation frequency, the propagation frequency being proportional to the force magnitude; and generating a scroll control signal that causes a menu system to scroll through a plurality of menu options provided by the menu system at a scroll frequency associated with the propagation frequency.

Abstract: A docking station for a medical device is described. In some examples, the docking station includes a frame and a base plate coupled to the frame. At least a portion of the base plate is coupled to a lower portion of the frame. In some examples, an electronic connector of the docking station is configured to couple to the medical device and to provide power to the medical device when the medical device is docked to the docking station. In some examples, a docking mechanism is coupled to an upper portion of the frame and configured to retain the medical device.

Abstract: A docking station for a medical device is described. In some examples, the docking station includes a frame and a base plate coupled to the frame. At least a portion of the base plate is coupled to a lower portion of the frame. In some examples, an electronic connector of the docking station is configured to couple to the medical device and to provide power to the medical device when the medical device is docked to the docking station. In some examples, a docking mechanism is coupled to an upper portion of the frame and configured to retain the medical device.

Abstract: Implementations include methods of controlling a haptic response comprising receiving a force signal from a force sensor; determining a force magnitude associated with the force signal; comparing the force magnitude with an initial threshold force amount to determine whether the force magnitude exceeds the initial threshold force amount; measuring an elapsed time that the force magnitude exceeds the initial threshold force amount; comparing the elapsed time to a minimum elapsed time; if the elapsed time being greater than the minimum elapsed time, generating a haptic feedback control signal, the haptic feedback control signal causing a haptic actuator to propagate a plurality of pressure waves at a propagation frequency, the propagation frequency being proportional to the force magnitude; and generating a scroll control signal that causes a menu system to scroll through a plurality of menu options provided by the menu system at a scroll frequency associated with the propagation frequency.

Abstract: Various implementations include a switch assembly that includes a housing and at least two printed circuit boards (PCBs) that are disposed within the housing and are axially arranged relative to each other. One or more force sensors are disposed on one of the PCBs, and, in some implementations, the one or more force sensors receive force input received by a touch overlay plate. Signals from the force sensors are processed to determine a magnitude, acceleration, and/or location of the force input, and a haptic feedback response is received by the touch overlay plate. The haptic feedback response is based on the force magnitude, acceleration, and/or location of input, according to some implementations. Axially arranging the PCBs reduces the footprint of the switch assembly and allows for the inclusion of more electrical components in the switch assembly, according to some implementations.