Abstract: A wireless sensor system and method detects when a tailgate, door, or other object on a vehicle moves from a closed position to an open position and then generates an alarm. The wireless sensor system includes a wireless sensor and a transceiver module. The transceiver module is plugged into a cigarette lighter of the vehicle to receive its power. The wireless sensor detects a movement of an object on a vehicle from a first position to a second position. The wireless sensor transmits data indicating the object moved from the first position to the second position to the transceiver module. The transceiver module receives the transmitted data and determines whether to cause an alarm to be generated based, at least in part, on the transmitted data. When an alarm is to be generated, the transceiver module causes the alarm to be generated.

Abstract: A blending system includes a blender base and a container. The blender base includes a housing that houses a motor. The container is attachable to the blender base. The blending system includes a user device that communicates with the blender base. The user device may communicate with a remote computing device. The user device generates instructions and recipes for the blender base.

Abstract: A food processor assembly is provided with a bowl with a substrate sized to be supported upon a blender base, and a sidewall to collectively define a bowl cavity to receive food products. A planetary gear transmission is supported upon the bowl substrate with a rotary input sized to receive a blender rotary output. A first transmission rotary output extends into the bowl cavity to provide a reduced rotation from the rotary input. A blade is connected to the first transmission rotary output for rotation relative to the bowl substrate to perform a cutting operation to a food product. The blade has a first cutting edge formed adjacent the first transmission rotary output to perform a continuous cutting operation to the food products. The blade has a second cutting edge spaced radially from the first transmission rotary output to perform a sequential cutting operation to the food products.

Abstract: A blending system that includes a base that is selectively and operatively engaged with a container is shown and described herein. The base may include a near field communications chip that may communicate with a near field communications chip of a cutting disc. The cutting disc identifies a type of the cutting disc, a position of a chute of a lid or both.

Abstract: A blender system that includes a base that is selectively and operatively engaged with a container is shown and described herein. The blender system may include a container. The container may include a magnet and may be engagable with a blade base. The blade base may include a switch that responds to the magnet. The blender system may include a shield that shields the magnet and switch from a magnetic field generated by operation of a motor.

Abstract: A blending system is shown and described herein. A blending system may include a base including a motor and a first shell that encases the motor. The blending system may also include a container that is removably coupled to the blender base. The blending system may also have a second shell selectively attached to the first shell. The blending system may also have a wall positioned within the base to direct airflow from the fan along a volute-shaped path.

Abstract: A blending system is shown and described herein. A blending system may include a base including a motor and a first shell that encases the motor. The blending system may also include a container that is removably coupled to the blender base. The blending system may also have a second shell selectively attached to the first shell. The blending system may also have a wall positioned within the base to direct airflow from the fan along a volute-shaped path.

Abstract: A blender system includes a blender base that is selectively and operably engaged with a container. The blender base may include a housing that houses a motor operatively driving a mixing blade, and a fan. The fan may operate independent of the motor. The fan may force air through the blender base to cool the motor and other operative components of the blender base.

Abstract: A blending device is shown and described. The blending device may include a blending container and a power source operatively connected to the blending container. The power source may be configured to supply power to the blending container. The blending container may also include a feature that is powered by the power source.

Abstract: A blending device includes a motor, a motor controller, and a wireless controller configured to receive a wireless signal. The motor controller may be configured to alter the operations of the motor based the wireless signal. The wireless signal may include a blending program to be carried out by the blending device. The blending device may include one or more sensors configured to sense parameters of the blending device. The wireless signal may include information related to the sensed parameters. A blending device network may be formed by providing a second blending device having a wireless controller in communication with the first blending device wireless controller. The first and second blending devices may share information over the network.

Abstract: A blending device is shown and described. The blending device may include a blending container and a power source operatively connected to the blending container. The power source may be configured to supply power to the blending container. The blending container may also include a feature that is powered by the power source.

Abstract: A blending system is shown and described herein. A blending system may include a base including a motor and a first shell that encases the motor. The blending system may also include a container that is removably coupled to the blender base. The blending system may also have a second shell selectively attached to the first shell. The blending system may also have a wall positioned within the base to direct airflow from the fan along a volute-shaped path.

Abstract: A blending device includes a motor, a motor controller, and a wireless controller configured to receive a wireless signal. The motor controller may be configured to alter the operations of the motor based the wireless signal. The wireless signal may include a blending program to be carried out by the blending device. The blending device may include one or more sensors configured to sense parameters of the blending device. The wireless signal may include information related to the sensed parameters. A blending device network may be formed by providing a second blending device having a wireless controller in communication with the first blending device wireless controller. The first and second blending devices may share information over the network.

Abstract: A blending system is shown and described herein. The blending system may include a base including a motor, a blade assembly selectively and operably engaged with the base, where the motor drives the blade assembly, and a container having an inner and outer layer. The blending system may also include a magnet positioned between inner and outer layers of the container, and a sensor positioned in the base, where the magnet in operative proximity to the sensor permits operation of the motor.

Abstract: In one embodiment of the invention, a blender blade (10) includes a body portion (12) having an upper surface (15) and a lower surface (16). The body portion includes an aperture (13) effectively defining an axis of rotation for the blender blade (10). A first blade wing (21) extends from the body portion (12) and has an upper surface (23) and a lower surface (25). A second blade (22) wing extends from the body portion (12) and has an upper surface (24) and a lower surface (26). A leading edge (41) is provided on the first blade wing (21) and a leading edge (42) is provided on the second blade wing (22), the leading edges (41, 42) being adapted to cut through a working medium during rotation of the blender blade (10). At least one wing flap (51, 52) extending outwardly, selectively from the first blade wing (21) and the second blade wing (22).

Abstract: In one embodiment of the invention, a blender blade (10) includes a body portion (12) having an upper surface (15) and a lower surface (16). The body portion includes an aperture (13) effectively defining an axis of rotation for the blender blade (10). A first blade wing (21) extends from the body portion (12) and has an upper surface (23) and a lower surface (25). A second blade (22) wing extends from the body portion (12) and has an upper surface (24) and a lower surface (26). A leading edge (41) is provided on the first blade wing (21) and a leading edge (42) is provided on the second blade wing (22), the leading edges (41, 42) being adapted to cut through a working medium during rotation of the blender blade (10). At least one wing flap (51, 52) extending outwardly, selectively from the first blade wing (21) and the second blade wing (22).

Abstract: A blade (10) for a blender includes a center portion (11) which includes the axis of rotation. Blade wings (13, 14) extend outwardly from the center portion (11) and wing tips (15, 16) are positioned at the end of the wings (13, 14). The wings (13, 14) and wing tips (15, 16) having leading edges (21, 22) and trailing edges (23, 24). The portion of the leading edges (21, 22) along the wings (13, 14) have beveled edges (13A, 14A) at the bottom surface thereof, and the portion of the leading edges (21, 22) along the wing tips (15, 16) have beveled edges (15A, 16A) formed at the top surfaces thereof. Each of the wings (13, 14) has an effective width to length ratio of greater than 0.287, the length being measured between the axis of rotation and the distal ends of the wing tips (15, 16).