Disclosed is an automatic dough mixer, comprising a base for placing and supporting, a body mounted on the base, a dough barrel mounted on the body as a container for dough mixing, a stirrer mounted on the body and arranged above the dough barrel for stirring flour and water in the dough barrel, a drive motor mounted on the body for driving the stirrer to rotate and stir, and an angle adjusting mechanism arranged between the base and the body for adjusting an inclination angle of the body relative to the base. The automatic dough mixer of the invention can effectively mix the flour in the dough barrel and avoid unmixed flour adhering to the dough barrel.

Disclosed is an automatic dough mixer, comprising a base for placing and supporting, a body mounted on the base, a dough barrel mounted on the body as a container for dough mixing, a stirrer mounted on the body and arranged above the dough barrel for stirring flour and water in the dough barrel, a drive motor mounted on the body for driving the stirrer to rotate and stir, and an angle adjusting mechanism arranged between the base and the body for adjusting an inclination angle of the body relative to the base. The automatic dough mixer of the invention can effectively mix the flour in the dough barrel and avoid unmixed flour adhering to the dough barrel.

Presented is a cooking robot system. The system includes a housing, a pair of cooking pots, and a motion mechanism to allow each of the cooking pots to perform a movement in 3 Degrees of Freedom (DoF) along horizontal, vertical, and rotational axes. The motion mechanism includes a horizontal motion arrangement, a vertical motion arrangement, and a rotational motion arrangement. The cooking robot system further includes a pair of heating elements rotatably coupled to the rotational motion arrangement. The heating arrangements detachably engage the cooking pots for heating the cooking ingredient contained in the cooking pots. The cooking robot system further includes a stirring mechanism for stirring the contents of the cooking pots, an ingredient-holding container containing cooking ingredients, and a dispenser assembly for selectively dispensing the cooking ingredients contained within the ingredient holding container.

Presented is a cooking robot system. The system includes a housing, a pair of cooking pots, and a motion mechanism to allow each of the cooking pots to perform a movement in 3 Degrees of Freedom (DoF) along horizontal, vertical, and rotational axes. The motion mechanism includes a horizontal motion arrangement, a vertical motion arrangement, and a rotational motion arrangement. The cooking robot system further includes a pair of heating elements rotatably coupled to the rotational motion arrangement. The heating arrangements detachably engage the cooking pots for heating the cooking ingredient contained in the cooking pots. The cooking robot system further includes a stirring mechanism for stirring the contents of the cooking pots, an ingredient-holding container containing cooking ingredients, and a dispenser assembly for selectively dispensing the cooking ingredients contained within the ingredient holding container.

A multifunctional food processor includes: a container, in which a chamber is formed; and a power device, including a shell, where a sliding component mounting cavity is formed in the shell, a sliding component is mounted in the sliding component mounting cavity in a sliding manner, an elastic device is arranged between the sliding component and the shell, a pressing structure and the sliding component are connected to drive the sliding component to slide up and down, a spiral rod mounting cavity is formed in the sliding component, a mounting hole is formed in one end of the sliding component and is interconnected with the spiral rod mounting cavity, the mounting hole and a spiral rod are mated, and any of a dewatering device, a cutting device and a stirring device can be in transmission connection with the spiral rod.

A multifunctional food processor includes: a container, in which a chamber is formed; and a power device, including a shell, where a sliding component mounting cavity is formed in the shell, a sliding component is mounted in the sliding component mounting cavity in a sliding manner, an elastic device is arranged between the sliding component and the shell, a pressing structure and the sliding component are connected to drive the sliding component to slide up and down, a spiral rod mounting cavity is formed in the sliding component, a mounting hole is formed in one end of the sliding component and is interconnected with the spiral rod mounting cavity, the mounting hole and a spiral rod are mated, and any of a dewatering device, a cutting device and a stirring device can be in transmission connection with the spiral rod.

The present invention relates to a hand mixer having a heat activation function. The heat activation function preferably allows a user to heat ingredients that are to be mixed by a hand mixer. The hand mixer may include a cavity that has each of a fan, a motor to drive the fan, heated coils, and an output area or mouth. When a user wishes to activate the heating function to soften ingredients in a bowl or other vessel to be mixed, he or she may use a controller to activate the fan and blow air through the heated coils and out from the output area toward the ingredients to be mixed and/or mixing devices used to mix the ingredients, so that the ingredients may be softened.

The present invention relates to a hand mixer having a heat activation function. The heat activation function preferably allows a user to heat ingredients that are to be mixed by a hand mixer. The hand mixer may include a cavity that has each of a fan, a motor to drive the fan, heated coils, and an output area or mouth. When a user wishes to activate the heating function to soften ingredients in a bowl or other vessel to be mixed, he or she may use a controller to activate the fan and blow air through the heated coils and out from the output area toward the ingredients to be mixed and/or mixing devices used to mix the ingredients, so that the ingredients may be softened.

A rotary drive device for a mixing or grinding cooking appliance includes (i) a rotary subassembly, (ii) a rotary drive member of a food processing arm and, (iii) a rotary coupling member of the rotary subassembly with the drive member for transmitting a rotational movement from the rotary subassembly the drive member. The coupling member is movable between a first position in which the coupling member is adapted to transmit motion in a single direction of rotation of the rotary subassembly and a second position in which the coupling member is adapted to transmit motion in two directions of rotation of the rotary subassembly.

A rotary drive device for a mixing or grinding cooking appliance includes (i) a rotary subassembly, (ii) a rotary drive member of a food processing arm and, (iii) a rotary coupling member of the rotary subassembly with the drive member for transmitting a rotational movement from the rotary subassembly the drive member. The coupling member is movable between a first position in which the coupling member is adapted to transmit motion in a single direction of rotation of the rotary subassembly and a second position in which the coupling member is adapted to transmit motion in two directions of rotation of the rotary subassembly.