Abstract: A mechanism for minimizing shock in a fluid has a housing, a valve disposed in the housing for regulating a flow of the fluid, a spring that urges the valve to oppose the fluid flow, and, a reservoir disposed in the housing downstream of the valve. The valve meters the flow of fluid from the reservoir if the valve moves in reaction to the flow of the fluid.

Abstract: A bracket for attaching and aligning a forward-looking radar (FLR) having a front face is disclosed according to one embodiment. The bracket includes a bracket frame having an attachment feature for attaching the FLR to the bracket frame. The bracket also includes a first mounting feature extending from the bracket frame for coupling the bracket face and the first mounting surface of the conveyance to define a first mounting surface angle. The bracket also includes a bracket member extending from the bracket frame. The bracket member includes an end portion disposed proximate to the bracket face and a distal end portion, which includes a second mounting feature for coupling the bracket member and the second mounting surface thereby defining a second mounting surface angle and aligning the FLR front face to an alignment angle.

Abstract: Disclosed are various embodiments of a food safety management system, including a web portal for management and reporting and a handheld computing device for checklist completion. A checklist of tasks to be performed in a food service establishment is obtained and displayed on a touchscreen of the handheld computing device. Confirmation is obtained on the touchscreen whether a task has been completed. An identifier at a location in the food service establishment is inputted to verify that a task has been completed. Temperature and humidity readings are obtained from one or more stationary sensors monitoring a food storage environment. Task completion data, temperature data, and humidity data are sent to a server.

Abstract: A rotary electric shaver generally includes a handle assembly including a housing, a motor disposed in the housing, a plurality of drive shafts operatively connected to the motor and extending at least in part exterior of the housing, and a head assembly mount separate from the plurality of drive shafts, wherein the head assembly mount has a longitudinal axis. A shaver head assembly is positionable on the handle assembly, and the shaver head assembly has a circumference and includes a plurality of inner cutters each operatively connectable to a respective one of the drive shafts for conjoint rotation therewith, and a plurality of outer cutters each corresponding to a respective one of the inner cutters. The shaver head assembly is configured for mounting on the head assembly mount such that the shaver head assembly is capable of pivoting movement relative to the handle housing about the entire circumference of the shaver head assembly.

Abstract: A plunger caddy assembly includes a plunger and a caddy that receives the plunger. The plunger is selectively rotatable in a first direction relative to the caddy to release the plunger from the caddy. The plunger is selectively rotatable in a second direction relative to the caddy to secure the plunger within the caddy.

Abstract: A cleaning system for an electric shaver having a shaving head generally includes a housing having an interior space configured to retain cleaning fluid within the housing. The housing is further configured for supporting the shaver in a generally upright orientation with the shaving head disposed at least in part within the interior space of the housing. A displacement apparatus is disposed within the interior space of the housing and is selectively positionable within the housing between a first position in which the cleaning fluid within the housing defines a lower fluid level relative to the shaving head to be cleaned, and a second position in which the cleaning fluid defines a higher fluid level relative to the shaving head such that at the higher fluid level at least a portion of the shaving head of the shaver is submerged in the cleaning fluid within the housing.

Abstract: A cleaning system for an electric shaver having a body and a shaving head generally includes a cradle configured to receive the shaving head of the shaver, and a reservoir positioned beneath the cradle and configured to retain cleaning fluid therein. The cleaning system also includes a drive assembly operable to move the reservoir between a raised position and a lowered position. In the raised position, the reservoir is positioned relative to the cradle such that at least a portion of the shaving head is submerged in cleaning fluid within the reservoir. In the lowered position, the reservoir is positioned relative to the cradle such that no portion of the shaving head is submerged in cleaning fluid.

Abstract: A fluid delivery control system including a rotatable flow control member to provide a flow control signal to a controller and a rotatable temperature control member to provide a temperature control signal to a controller.

Abstract: Methods and apparatuses for detecting the flow volume of a fluid using alternating vortices.

Abstract: Methods and apparatuses for detecting the flow volume of a fluid using alternating vortices.

Abstract: A plunger caddy assembly includes a plunger and a caddy that receives the plunger. The plunger is selectively rotatable in a first direction relative to the caddy to release the plunger from the caddy. The plunger is selectively rotatable in a second direction relative to the caddy to secure the plunger within the caddy.

Abstract: A control system for a vehicle (10) is described for use in conjunction with the safety system (44) of the vehicle (10). A tire sensor or plurality of tire sensors generates tire force signals. The tire force signals may include lateral tire forces, longitudinal (or torque) tire forces, and normal tire forces. Based upon the tire force signals, a safety system (44) may be activated. The tire force sensors may be used to monitor various conditions including but not limited to sensing a roll condition, wheel lift detection, a trip event, oversteering and understeering conditions, pitch angle, bank angle, roll angle, and the position of the center of gravity of the vehicle.

Abstract: An integrated circuit (203) for use in processing streams of data generally and streams of packets in particular. The integrated circuit (203) includes a number of packet processors (307, 313, 303), a table look up engine (301), a queue management engine (305) and a buffer management engine (315). The packet processors (307, 313, 303) include a receive processor (421), a transmit processor (427) and a risc core processor (401), all of which are programmable. The receive processor (421) and the core processor (401) cooperate to receive and route packets being received and the core processor (401) and the transmit processor (427) cooperate to transmit packets. Routing is done by using information from the table look up engine (301) to determine a queue (215) in the queue management engine (305) which is to receive a descriptor (217) describing the received packet's payload.