Abstract: A power generating device comprises a magnetic core, an induction coil assembly, a first housing, a conductive plate, and a second housing. The induction coil assembly is coupled with the magnetic core, and the magnetic core and the induction assembly are configured in the accommodating space of the first housing. The conductive plate is attracted to the magnetic core. The second housing is configured above the conductive plate. When the second housing receives an external force along an extending direction of the magnetic core, a distance change between the conductive plate and the magnetic core causes a variation of magnetic flux. The induction coil assembly generates a current by sensing the magnetic flux variation.

Abstract: A power generating device comprises a magnetic core, an induction coil assembly, a first housing, a conductive plate, and a second housing. The induction coil assembly is coupled with the magnetic core, and the magnetic core and the induction assembly are configured in the accommodating space of the first housing. The conductive plate is attracted to the magnetic core. The second housing is configured above the conductive plate. When the second housing receives an external force along an extending direction of the magnetic core, a distance change between the conductive plate and the magnetic core causes a variation of magnetic flux. The induction coil assembly generates a current by sensing the magnetic flux variation.

Abstract: A power generating device includes a first casing, a magnetic component, a second casing, an induction coil, and a first piezoelectric device. The first casing and the second casing engage with each other to form a space, and the magnetic component is fixed on the first casing and configured in the space. The induction coil is fixed on the second casing and configured in the space, and it is positioned outside the contour of the magnetic component. The first piezoelectric is configured between the magnetic component and the first casing. When an external force acts on the first casing and the second casing, the first casing and the second casing move relatively to each other so that the induction coil generates an induced current by sensing a magnetic flux variation, and the first piezoelectric component generates a first charge by absorbing the pressure between the magnetic component and the second casing.

Abstract: The invention discloses a power generating device comprising a first shell, a magnetic unit, a second shell and an inductance coil. The first shell comprises at least a first engaging part. The magnetic unit is disposed on the first shell. The second shell comprises at least a second engaging part which is detachably engaged to the first engaging part making the first shell and the second shell form a space, wherein the magnetic unit is disposed inside the space. The inductance coil is disposed on the second shell inside the space, and the magnetic unit is surrounded by the inductance coil. When an external force is applied to the first shell and the second shell, the first engaging part moves relatively to second engaging part, and the inductance coil generates an induced current by sensing changes of a magnetic flux.

Abstract: The invention discloses an electric power generating device applied on a wearable object. The electric power generating device comprises a transmission unit, a magnetic permeable member, a magnetic member, a core, and a coil. The transmission unit transfers an external force received by the wearable object to a driving force. The core is configured in the wearable object and has a first end. The coil is coupled to the core. The magnetic permeable member is configured in the wearable object to receive the driving force and move by the driving force. The magnetic member is configured on the magnetic permeable member and near the first end. When the magnetic permeable member pushes the magnetic member to move relatively to the first end through the driving force, the magnetic flux in the core varies to lead the coil to induce an induced electromotive force.

Abstract: The invention discloses a power generating device comprising a first shell, a magnetic unit, a second shell and an inductance coil. The first shell comprises at least a first engaging part. The magnetic unit is disposed on the first shell. The second shell comprises at least a second engaging part which is detachably engaged to the first engaging part making the first shell and the second shell form a space, wherein the magnetic unit is disposed inside the space. The inductance coil is disposed on the second shell inside the space, and the magnetic unit is surrounded by the inductance coil. When an external force is applied to the first shell and the second shell, the first engaging part moves relatively to second engaging part, and the inductance coil generates an induced current by sensing changes of a magnetic flux.

Abstract: The invention provides a light-emitting apparatus, which can be disposed on a manpower vehicle, including a light-emitting unit and a power-generating module. The power-generating module further includes a first magnetic conductor, a second magnetic conductor, and a coil. The first magnetic conductor is disposed on a first component of the manpower vehicle; the second magnetic conductor is disposed on a second component of the manpower vehicle, and the coil is coupled to the first magnetic conductor or the second magnetic conductor. Moreover, the first magnetic conductor or the second magnetic conductor includes a magnetic member. Particularly, the first component can apply a pre-set point as an axle to rotate, so that when a distance between the first magnetic conductor and the second magnetic conductor is changed, the coil is capable of generating an induced electromotive force for supporting the light-emitting unit with needed power.

Abstract: The invention discloses an electric power generating device applied on a wearable object. The electric power generating device comprises a transmission unit, a magnetic permeable member, a magnetic member, a core, and a coil. The transmission unit transfers an external force received by the wearable object to a driving force. The core is configured in the wearable object and has a first end. The coil is coupled to the core. The magnetic permeable member is configured in the wearable object to receive the driving force and move by the driving force. The magnetic member is configured on the magnetic permeable member and near the first end. When the magnetic permeable member pushes the magnetic member to move relatively to the first end through the driving force, the magnetic flux in the core varies to lead the coil to induce an induced electromotive force.

Abstract: The invention provides an automated light-emitting apparatus, which can be disposed in an object, includes a light-emitting unit, a force-sensing module, and a power-generating module. The force-sensing module includes a first component and a second component engaged to the first component. When the object receives an external force, the force-sensing module changes the distance between a first portion of the first component and a second portion of the second component. Moreover, the power-generating module includes a coil coupled to a magnetic member, the magnetic member engaged to the first component, and a magnetic conductor engaged to the second component. Particularly, when the distance between the first portion and the second portion is changed, the coil generates an induced electromotive force for supporting the light-emitting unit with needed power.

Abstract: The invention provides a light-emitting apparatus, which can be disposed on a manpower vehicle, including a light-emitting unit and a power-generating module. The power-generating module further includes a first magnetic conductor, a second magnetic conductor, and a coil. The first magnetic conductor is disposed on a first component of the manpower vehicle; the second magnetic conductor is disposed on a second component of the manpower vehicle, and the coil is coupled to the first magnetic conductor or the second magnetic conductor. Moreover, the first magnetic conductor or the second magnetic conductor includes a magnetic member. Particularly, the first component can apply a pre-set point as an axle to rotate, so that when a distance between the first magnetic conductor and the second magnetic conductor is changed, the coil is capable of generating an induced electromotive force for supporting the light-emitting unit with needed power.

Abstract: The invention provides an automated light-emitting apparatus, which can be disposed in an object, includes a light-emitting unit, a force-sensing module, and a power-generating module. The force-sensing module includes a first component and a second component engaged to the first component. When the object receives an external force, the force-sensing module changes the distance between a first portion of the first component and a second portion of the second component. Moreover, the power-generating module includes a coil coupled to a magnetic member, the magnetic member engaged to the first component, and a magnetic conductor engaged to the second component. Particularly, when the distance between the first portion and the second portion is changed, the coil generates an induced electromotive force for supporting the light-emitting unit with needed power.