Abstract: The technology described herein is directed to a food assembly and packaging robot for automating aspects of food assembly and packaging. The food assembly and packaging robot system may include a robot system include a conveyance system, a bowl dispenser, one or more food dispensers, one or more condiment dispensers, a lidder, and a bagger, and in some instances, other components. The bowl dispenser may be configured to deposit bowls onto the conveyance system. The one or more food dispensers may be configured to deposit one or more ingredients into the bowls and the one or more condiment dispensers may be configured to deposit one or more condiments into the bowls. The lidder may be configured to position lids atop the bowls and the bagger may be configured to place the bowls into bags.

Abstract: Microsphere formulations comprising asenapine are provided. Methods for making and using the microsphere formulations are also provided.

Abstract: A battery pack assembly comprises a battery enclosure having a first side panel, a second side panel, a third side panel, a fourth side panel, a top panel, and a bottom panel defining a module containing volume. The battery pack assembly may contain a plurality of battery modules in the module containing volume, the plurality of battery modules having a first battery module, a second battery module, and a third battery module. The first battery module and the second battery module are positioned in a first orientation and stacked to form a column of battery modules and the third battery module is positioned in a second orientation and positioned adjacent to the column of battery modules.

Abstract: A fluid injector comprising a coil arranged to drive a pump from a first state to a second state when energized, so as to pump a dosing fluid; a PN junction electrically arranged across the coil to discharge energy stored in the coil when the voltage across the coil is above a threshold. In one particular embodiment, the fluid injector is a selective catalytic reduction dosing fluid injector.

Abstract: A fluid injector comprising a coil arranged to drive a pump from a first state to a second state when energized, so as to pump a dosing fluid; a PN junction electrically arranged across the coil to discharge energy stored in the coil when the voltage across the coil is above a threshold. In one particular embodiment, the fluid injector is a selective catalytic reduction dosing fluid injector.

Abstract: An apparatus (10) is used in a vehicle having a seat (2) for a vehicle occupant and a vehicle floor pan (4) for supporting the vehicle seat (2). The apparatus (10) includes a vehicle seat frame (20), a bracket (30), a spring element (240, 340 or 340, 350), a lever (90), and a sensor (992). The spring element (240, 340 or 340, 350) compresses to allow the vehicle seat frame (20) to move vertically when the load of the vehicle occupant acts on the vehicle seat (2). The lever (90) has a first end portion (100) and a second end portion (110) opposite the first end portion (100). The first end portion (100) is movable with the vehicle seat frame (20). The second end portion (110) is movable with the vehicle seat frame (20). The lever (90) has a middle portion (120) interposed between the first end portion (100) and the second end portion (110). The lever (90) bends as the vehicle seat frame (20) moves vertically relative to the bracket (30).

Abstract: A method (60) for adjusting the zero point of a vehicle seat weight sensing system (10) includes the step of determining a zero point error (64) of the seat weight sensing system. The method (60) also includes the step of adjusting the zero point error (68) in response to determining that the zero point error was influenced by an object on the vehicle seat.

Abstract: An assembly (10) is used in a vehicle having a seat (2) for a vehicle occupant and a vehicle floor pan (4) for supporting the vehicle seat (2). The assembly (10) includes a vehicle seat frame (20) for supporting a load of the vehicle occupant in the vehicle seat (2), a sensor (79) for sensing the load of the vehicle occupant, and a housing (100) for transmitting the load of the vehicle occupant to the vehicle floor pan (4). The sensor (79) provides an output signal indicative of the amount of the load of the vehicle occupant. The housing (100) encloses the sensor (79) to protect the sensor (79).

Abstract: An assembly (10) is used in a vehicle having a seat (2) for a vehicle occupant and a vehicle floor pan (4) for supporting the vehicle seat (2). The assembly (10) includes a vehicle seat frame (20) for supporting a load of the vehicle occupant in the vehicle seat (2), a sensor (79) for sensing the load of the vehicle occupant, and a housing (100) for transmitting the load of the vehicle occupant to the vehicle floor pan (4). The sensor (79) provides an output signal indicative of the amount of the load of the vehicle occupant. The housing (100) encloses the sensor (79) to protect the sensor (79).

Abstract: An apparatus (10) comprises a manually rotatable knob (14) and a source (18) of light. The knob (14) has an axis (15) of rotation, and has a discrete light-transmitting portion (40) which is spaced from the axis (15). A hollow part (36) of the knob (14) defines a chamber (39) extending from the axis (15) to the light-transmitting portion (40). A rotor (22) extends along the axis (15) from the chamber (39) to the source (18) of light. The rotor (22) is formed of material which is translucent sufficiently to transmit light from the source (18) to the chamber (39) to flood the chamber (39) with light, and thereby to illuminate the light-transmitting portion (40) of the knob (14).

Abstract: A rotary, push-pull switch (20) for use in an automobile has a rotating ceramic coated metal substrate rheostat (48) and a supplemental switch (52) which opens and closes a dome light bypass circuit. The supplemental switch (52) is mounted internally to the rotary, push-pull switch (20) adjacent to the rotating rheostat (48) disposed on a shaft (36). A projection (88), which is radially disposed on the shaft (36), is used to actuate the supplemental switch (52) by engaging a resilient contact leaf (60) when the shaft (36) is rotated sufficiently. The engagement of the projection (88) and contact arm (60) causes the separation of a contact (62) and terminal (64), opens the dome light bypass circuit, and precludes energizing the dome light.