Abstract: A game controller includes a housing, a number of press sensors and touch sensors, and a main circuit embedded in the housing powered by a battery. The main circuit includes a collecting module, a comparing module and a controlling module. The press sensors detects pressure from the housing and outputting a number of pressure signals. The touch sensors detects a plurality of touch signals. The collecting module collects and combines the pressure signals and the touch signals into a first positioning signal and a second positioning signal correspondingly. The comparing module predetermines a number of preset signal values and a number of preset pitches correspondingly and compares the first and second positioning signals with the preset signal values. The controlling module triggers one of the preset pitches when the first positioning signal and the second positioning signal are equal to the preset signal values.

Abstract: A key assembly includes a touching portion, and a detecting unit. The detecting unit includes a power source, a first detector, a second detector, a processor, a first resistor layer, and a second resistor layer parallel spaced from the first resistor layer. The first resistor layer includes a first end and a second end. The second resistor layer includes a third end and a fourth end. The first end is connected to a first electrode of the power source via the first detector, and the fourth end is connected to the first electrode of the power source via the second detector. The second and the third ends are connected to a second electrode of the power source. The processor electrically connected to the first detector and the second detector performs a predetermined function of the electronic device in response to electrical signals from the first and second detectors.

Abstract: An exemplary touch sensitive robot includes a body, a touch sensor, a driver, and a controller. The body includes a control panel. The touch sensor includes a first conductive belt wrapped on the body, a second conductive belt provided around but spaced away from the first conductive belt, a power source applying a voltage to two distal ends of the first conductive voltage, and a voltage sensor interconnected between an end of the first conductive belt and an end of the second conductive belt. The second conductive belt is electrically deformable and contacts the first conductive belt when touched by a user so that a measured voltage of the voltage sensor change dependently of the location of the touch. The controller is for controlling the driver to spin the body based upon the measured voltage to orient the control panel to the user.

Abstract: A touch sensitive robot includes a body having a control panel, a touch sensor, a driver, and a controller. The touch sensor includes a first conductive belt, a second conductive belt, a power source, and a current sensor. The first conductive belt is wrapped on the body. The second conductive belt is wrapped around but spaced away from the first conductive belt. The power source and the current sensor are connected in series between the first conductive belt and the second conductive belt to form a closed circuit when a point of the second conductive belt is touched to contact the first conductive belt. The current sensor is for measuring the flow of the electrical current of the close loop. The controller is for controlling the driver to turn the body based upon the measurement of the current sensor to orient the control panel to the touch point.

Abstract: A wireless mouse includes a magnetic ball, a power generating device and a power storage device. The power generating device includes an inductive coil, being dome-shaped and partially covering the magnetic ball and configured for generating inductive voltage following the movement of the magnetic ball, and a converting unit, being configured for converting the inductive voltage to a stabilized DC voltage. The power storage device electrically is coupled to the power generating device and configured for being charged by the converting unit using the stabilized DC voltage and provide power for the wireless mouse.

Abstract: A game controller includes a housing, a number of press sensors and touch sensors, and a main circuit embedded in the housing powered by a battery. The main circuit includes a collecting module, a comparing module and a controlling module. The press sensors detects pressure from the housing and outputting a number of pressure signals. The touch sensors detects a plurality of touch signals. The collecting module collects and combines the pressure signals and the touch signals into a first positioning signal and a second positioning signal correspondingly. The comparing module predetermines a number of preset signal values and a number of preset pitches correspondingly and compares the first and second positioning signals with the preset signal values. The controlling module triggers one of the preset pitches when the first positioning signal and the second positioning signal are equal to the preset signal values.

Abstract: A key assembly includes a touching portion, and a detecting unit. The detecting unit includes a power source, a first detector, a second detector, a processor, a first resistor layer, and a second resistor layer parallel spaced from the first resistor layer. The first resistor layer includes a first end and a second end. The second resistor layer includes a third end and a fourth end. The first end is connected to a first electrode of the power source via the first detector, and the fourth end is connected to the first electrode of the power source via the second detector. The second and the third ends are connected to a second electrode of the power source. The processor electrically connected to the first detector and the second detector performs a predetermined function of the electronic device in response to electrical signals from the first and second detectors.

Abstract: A wireless mouse includes a magnetic ball, a power generating device and a power storage device. The power generating device includes an inductive coil, being dome-shaped and partially covering the magnetic ball and configured for generating inductive voltage following the movement of the magnetic ball, and a converting unit, being configured for converting the inductive voltage to a stabilized DC voltage. The power storage device electrically is coupled to the power generating device and configured for being charged by the converting unit using the stabilized DC voltage and provide power for the wireless mouse.

Abstract: A touch sensitive robot includes a body having a control panel, a touch sensor, a driver, and a controller. The touch sensor includes a first conductive belt, a second conductive belt, a power source, and a current sensor. The first conductive belt is wrapped on the body. The second conductive belt is wrapped around but spaced away from the first conductive belt. The power source and the current sensor are connected in series between the first conductive belt and the second conductive belt to form a closed circuit when a point of the second conductive belt is touched to contact the first conductive belt. The current sensor is for measuring the flow of the electrical current of the close loop. The controller is for controlling the driver to turn the body based upon the measurement of the current sensor to orient the control panel to the touch point.

Abstract: An exemplary touch sensitive robot includes a body, a touch sensor, a driver, and a controller. The body includes a control panel. The touch sensor includes a first conductive belt wrapped on the body, a second conductive belt provided around but spaced away from the first conductive belt, a power source applying a voltage to two distal ends of the first conductive voltage, and a voltage sensor interconnected between an end of the first conductive belt and an end of the second conductive belt. The second conductive belt is electrically deformable and contacts the first conductive belt when touched by a user so that a measured voltage of the voltage sensor change dependently of the location of the touch. The controller is for controlling the driver to spin the body based upon the measured voltage to orient the control panel to the user.