Abstract: A gaming exercise bike includes a main body, a driving mechanism and an auxiliary mechanism. The driving mechanism is at a lower end of the main body, the auxiliary mechanism is at a front end of the driving mechanism, and the main body includes a handlebar disc, a main frame disc and a rubber block assembly. The main frame disc is movably installed to a lower end of the handlebar disc, the rubber block assembly is movably installed to an upper end of the main frame disc, and the driving mechanism includes a front handlebar plastic part, a front main frame plastic part and a main frame tube. With the installation of the driving mechanism, the flywheel assembly can provide resistance, reserve mechanical energy for the rotation of the generator, stabilize idle speed, and make gaming and exercising process safer.

Abstract: A gaming exercise bike includes a main body, a driving mechanism and an auxiliary mechanism. The driving mechanism is at a lower end of the main body, the auxiliary mechanism is at a front end of the driving mechanism, and the main body includes a handlebar disc, a main frame disc and a rubber block assembly. The main frame disc is movably installed to a lower end of the handlebar disc, the rubber block assembly is movably installed to an upper end of the main frame disc, and the driving mechanism includes a front handlebar plastic part, a front main frame plastic part and a main frame tube. With the installation of the driving mechanism, the flywheel assembly can provide resistance, reserve mechanical energy for the rotation of the generator, stabilize idle speed, and make gaming and exercising process safer.

Abstract: The present disclosure relates to security mechanisms for electric motors and associated systems. For example, the present technology includes a powertrain assembly having (1) a motor having multiple sets of coils; (2) a drive circuitry electrically coupled to the multiple sets of coils; and (3) a security unit electrically coupled to the drive circuitry and the multiple sets of coils. The security unit is configured to short-circuit at least one set of the multiple sets of coils responsive to a signal from a controller. The signal indicates that the motor is, or has been, turned off.

Abstract: The present disclosure relates to hub apparatuses and associated systems. An embodiment of the hub apparatus includes a rotor assembly, a shaft, and a stator assembly. The rotor assembly includes first/second housing components and multiple magnets mounted on one or both of the first and second housing components. The stator assembly includes (1) a coil assembly positioned corresponding to the magnets; (2) a main circuit board fixedly coupled to the coil assembly; and (3) a battery assembly positioned inside the coil assembly and carried by the main circuit board.

Abstract: A moving device which can move autonomously in an environment is provided and includes an image capturing component, a processor, a moving component, and a signal transmitter. The image capturing component captures environmental feature information of the environment during moving process of the moving device. The processor identifies a first location of at least one electronic apparatus in the environment according to the environmental feature information and predetermined feature information corresponding to the at least one electronic apparatus and determines a second location corresponding to the first location according to a remote signal. The moving component causes the moving device to move to the second location. The signal transmitter controlled by the processor. The signal transmitter sends a first signal from the second location to the at least one electronic apparatus to control the operation of the at least one electronic apparatus.

Abstract: The present disclosure relates to a hub apparatus and associated charging systems. In some embodiments, the hub apparatus includes (1) a housing assembly defining an internal space; (2) a shaft positioned to extend through the housing assembly; (3) a stator assembly fixedly coupled to the shaft; (4) a side cover fixedly coupled to the shaft and rotatably coupled to the housing assembly, the side cover having a base portion and a mating portion extending from the base portion; and (5) a pair of first connectors positioned through the mating portion. Each of the first connectors comprising a terminal end and a contact portion. The terminal end is electrically coupled to a battery assembly via a wire bundle fixedly coupled to the side cover. The contact portion is configured to electrically couple to an external power source so as to charge the battery assembly through a wired connection.

Abstract: The present disclosure relates to structures and associated systems for connecting a hub apparatus to a wheel. In some embodiments, the hub apparatus includes (1) a housing assembly having an outer radius; and (2) a mounting portion circumferentially provided on at least one side surface of the housing assembly. The mounting portion is formed with a plurality of coupling structures configured to couple the hub apparatus to a wheel rim. The mounting portion defines a first radius smaller than the outer radius.

Abstract: A pen-shaped folding mouse includes a scroll wheel, two supporting shafts, two rod bodies, two buttons, and an optical sensor. The scroll wheel has an axis line. The two supporting shafts are disposed on two opposite sides of the scroll wheel and are parallel to the axis line. The two rod bodies are located on the two opposite sides of the scroll wheel and are movably disposed on the two supporting shafts. The two rod bodies include two outer surfaces and two first end surfaces close to each other. The two buttons are disposed on the two outer surfaces of the two rod bodies. The optical sensor is located on the outer surface of one of the rod bodies.

Abstract: A pen-shaped folding mouse includes a scroll wheel, two supporting shafts, two rod bodies, two buttons, and an optical sensor. The scroll wheel has an axis line. The two supporting shafts are disposed on two opposite sides of the scroll wheel and are parallel to the axis line. The two rod bodies are located on the two opposite sides of the scroll wheel and are movably disposed on the two supporting shafts. The two rod bodies include two outer surfaces and two first end surfaces close to each other. The two buttons are disposed on the two outer surfaces of the two rod bodies. The optical sensor is located on the outer surface of one of the rod bodies.

Abstract: A handheld electronic device with drop protection, comprising a body, a sensor, at least one buffer and at least one driving part. The body has a front surface, a back surface and at least one side. The sensor is disposed in the body and generates a control signal when the handheld electronic device is dropping. The at least one buffer is disposed on the side of the body, which has a front portion and a back portion extending in different directions and is driven to rotate at an angle so that the front portion and the back portion protruding from the front surface and the back surface of the body respectively. The at least one drive part is disposed in the body and connected to the buffer for driving the buffer to rotate at the angle while receiving the control signal.

Abstract: The present disclosure relates to a hub apparatus and associated charging systems. In some embodiments, the hub apparatus includes (1) a housing assembly defining an internal space; (2) a shaft positioned to extend through the housing assembly; (3) a stator assembly fixedly coupled to the shaft; (4) a side cover fixedly coupled to the shaft and rotatably coupled to the housing assembly, the side cover having a base portion and a mating portion extending from the base portion; and (5) a pair of first connectors positioned through the mating portion. Each of the first connectors comprising a terminal end and a contact portion. The terminal end is electrically coupled to a battery assembly via a wire bundle fixedly coupled to the side cover. The contact portion is configured to electrically couple to an external power source so as to charge the battery assembly through a wired connection.

Abstract: A moving device which can move autonomously in an environment is provided and includes an image capturing component, a processor, a moving component, and a signal transmitter. The image capturing component captures environmental feature information of the environment during moving process of the moving device. The processor identifies a first location of at least one electronic apparatus in the environment according to the environmental feature information and predetermined feature information corresponding to the at least one electronic apparatus and determines a second location corresponding to the first location according to a remote signal. The moving component causes the moving device to move to the second location. The signal transmitter controlled by the processor. The signal transmitter sends a first signal from the second location to the at least one electronic apparatus to control the operation of the at least one electronic apparatus.

Abstract: The present disclosure relates to structures and associated systems for connecting a hub apparatus to a wheel. In some embodiments, the hub apparatus includes (1) a housing assembly having an outer radius; and (2) a mounting portion circumferentially provided on at least one side surface of the housing assembly. The mounting portion is formed with a plurality of coupling structures configured to couple the hub apparatus to a wheel rim. The mounting portion defines a first radius smaller than the outer radius.

Abstract: The present disclosure relates to hub apparatuses and associated systems. An embodiment of the hub apparatus includes a rotor assembly, a shaft, and a stator assembly. The rotor assembly includes first/second housing components and multiple magnets mounted on one or both of the first and second housing components. The stator assembly includes (1) a coil assembly positioned corresponding to the magnets; (2) a main circuit board fixedly coupled to the coil assembly; and (3) a battery assembly positioned inside the coil assembly and carried by the main circuit board.

Abstract: The present disclosure relates to security mechanisms for electric motors and associated systems. For example, the present technology includes a powertrain assembly having (1) a motor having multiple sets of coils; (2) a drive circuitry electrically coupled to the multiple sets of coils; and (3) a security unit electrically coupled to the drive circuitry and the multiple sets of coils. The security unit is configured to short-circuit at least one set of the multiple sets of coils responsive to a signal from a controller. The signal indicates that the motor is, or has been, turned off.

Abstract: A handheld electronic device with drop protection, comprising a body, a sensor, at least one buffer and at least one driving part. The body has a front surface, a back surface and at least one side. The sensor is disposed in the body and generates a control signal when the handheld electronic device is dropping. The at least one buffer is disposed on the side of the body, which has a front portion and a back portion extending in different directions and is driven to rotate at an angle so that the front portion and the back portion protruding from the front surface and the back surface of the body respectively. The at least one drive part is disposed in the body and connected to the buffer for driving the buffer to rotate at the angle while receiving the control signal.