Abstract: A seal for a dish washer and a dish washer having the seal are provided. The seal has a side seal part, a radial seal part and a mounting part. The side seal part seals a gap between an inner side surface of a water tank of the dish washer and a door body of the dish washer. The radial seal part is connected to the side seal part and seals a gap between an upper surface of the water tank and the door body. The mounting part is connected to at least one of the side seal part and the radial seal part and is mounted to the door body.

Abstract: Provided is a microwave rice cooker, comprising a cavity structure, a door assembly and an inner pot (20). The cavity structure comprises a microwave transmitting mechanism, a cavity (2) provided with a cylindrical cooking chamber therein, and a top cap (1) and a bottom cap (5) located at two ends of the cooking chamber respectively. The bottom cap (5) closes the cooking chamber at the bottom. A top opening of the cooking chamber is formed on the top cap (1). The inner pot (20) can be put into or taken out of the cooking chamber through the top opening. The door assembly is mounted on the top cap (1) in an openable and closable manner so as to open or close the cooking chamber from the top. The microwave transmitting mechanism is mounted at the bottom of the bottom cap (5) to feed microwaves into the cooking chamber from the bottom. The microwave rice cooker achieves a two-in-one function of a microwave oven and a rice cooker.

Abstract: A seal for a dish washer and a dish washer having the seal are provided. The seal has a side seal part, a radial seal part and a mounting part. The side seal part seals a gap between an inner side surface of a water tank of the dish washer and a door body of the dish washer. The radial seal part is connected to the side seal part and seals a gap between an upper surface of the water tank and the door body. The mounting part is connected to at least one of the side seal part and the radial seal part and is mounted to the door body.

Abstract: A split-type microwave oven comprises a first housing assembly, a second housing assembly, a microwave source module, a microwave shielding and choking member, and a detection device that is used for detecting whether a wave leakage occurs in a microwave heating resonant cavity. The second housing assembly is detachably disposed on the first housing assembly. The first housing assembly is provided with a first microwave shielding member, the second housing assembly is provided with a second microwave shielding member, and the first microwave shielding member is suitable for defining, together with the second microwave shielding member, the microwave heating resonant cavity. The microwave source module is installed on one of the first housing assembly and the second housing assembly. The microwave shielding and choking member is located outside the microwave heating resonant cavity. The split-type microwave oven occupies a small space and is convenient to use.

Abstract: A semiconductor microwave oven and a semiconductor microwave source thereof. The semiconductor microwave oven includes: a body, a microwave input device, a semiconductor microwave source and a control device. The semiconductor microwave source includes a signal source, a power divider and N drive amplifiers. The signal source is configured to generate a first microwave signal. Power of the first microwave signal is allocated by the power divider to generate N second microwave signals. Each drive amplifier is configured to conduct drive amplification on the second microwave signal, and respectively to input same to the microwave input device to transmit into the chamber. The control device is configured to control the signal source to generate the first microwave signal. The microwave oven shares one signal source to guarantee operating at the same frequency, thereby realizing the highly efficient power output.

Abstract: Provided is a microwave rice cooker, comprising a cavity structure, a door assembly and an inner pot (20). The cavity structure comprises a microwave transmitting mechanism, a cavity (2) provided with a cylindrical cooking chamber therein, and a top cap (1) and a bottom cap (5) located at two ends of the cooking chamber respectively. The bottom cap (5) closes the cooking chamber at the bottom. A top opening of the cooking chamber is formed on the top cap (1). The inner pot (20) can be put into or taken out of the cooking chamber through the top opening. The door assembly is mounted on the top cap (1) in an openable and closable manner so as to open or close the cooking chamber from the top. The microwave transmitting mechanism is mounted at the bottom of the bottom cap (5) to feed microwaves into the cooking chamber from the bottom. The microwave rice cooker achieves a two-in-one function of a microwave oven and a rice cooker.

Abstract: A split-type microwave oven comprises a first housing assembly, a second housing assembly, a microwave source module, a microwave shielding and choking member, and a detection device that is used for detecting whether a wave leakage occurs in a microwave heating resonant cavity. The second housing assembly is detachably disposed on the first housing assembly. The first housing assembly is provided with a first microwave shielding member, the second housing assembly is provided with a second microwave shielding member, and the first microwave shielding member is suitable for defining, together with the second microwave shielding member, the microwave heating resonant cavity. The microwave source module is installed on one of the first housing assembly and the second housing assembly. The microwave shielding and choking member is located outside the microwave heating resonant cavity. The split-type microwave oven occupies a small space and is convenient to use.

Abstract: A semiconductor microwave oven and a semiconductor microwave source thereof. The semiconductor microwave oven includes: a body, a microwave input device, a semiconductor microwave source and a control device. The semiconductor microwave source includes a signal source, a power divider and N drive amplifiers. The signal source is configured to generate a first microwave signal. Power of the first microwave signal is allocated by the power divider to generate N second microwave signals. Each drive amplifier is configured to conduct drive amplification on the second microwave signal, and respectively to input same to the microwave input device to transmit into the chamber. The control device is configured to control the signal source to generate the first microwave signal. The microwave oven shares one signal source to guarantee operating at the same frequency, thereby realizing the highly efficient power output.

Abstract: A carbon fiber arrow shaft comprises a hollow tube, a reinforced carbon fiber, and a resinoid binder. The hollow tube has a length between 500-900 mm, an inner diameter between 2-10 mm, and a tube wall thickness between 0.3-2 mm. The reinforced carbon fiber and the resinoid binder form a resin-impregnated carbon fiber. The carbon fiber arrow shaft is formed by directly and continuously winding the resin-impregnated carbon fiber around the hollow tube. The carbon fiber arrow shaft has a head section (L1), a middle section (L2) and a tail section (L3). A winding angle of the carbon fiber at the head section (L1) is changed from a larger winding angle to a smaller winding angle, a winding angle at the middle section (L2) stays constant, and a winding angle at the tail section (L3) is changed from a smaller winding angle to a larger winding angle. The lengths of the head section (L1) and the tail section (L3) are between 25-250 mm.