Abstract:
A sliding electronic device includes a first component, a second component, a connecting element and a torsion element. The second component faces the first component. The connecting element is disposed between the first component and the second component, and has a first end and a second end, wherein the first end is rotatably disposed within the first component, and the second end is movably disposed within the second component. The torsion element connecting the first component to the connecting element is for providing torque to drive the connecting element. When a relative movement between the first component and the second component is generated under an applied force, the connecting element and the torsion element cause the second component to move between a close location and an open location on the first component.
Abstract:
A handheld electronic device including a first body, a second body and a moving mechanism is provided. The second body is stacked under the first body. A side of the second body facing the first body has a concave portion. The moving mechanism includes a first sliding member, a second sliding member and an elevating mechanism. The first sliding member is fixed to the first body. The second sliding member is slidingly disposed at the first sliding member. The elevating mechanism is connected between the second body and the second sliding member. After the first sliding member drives the first body to shift relatively to the second body to reach the concave portion, the first body compresses the elevating mechanism and enters the concave portion.
Abstract:
A mask machine protection frame device with function of air filtering includes an outer frame being a hollow frame for receiving a mask machine therein; an outlook of the outer frame; and at least one air filter installed at an upper side of the outer frame for sucking outer air into the outer frame; the air filter including at least one fan and at least one filter device; the fan serving to suck outer air into the filter device for air filtering so as to flow out clean air; and the clean air then flowing to the mask machine. The outer frame can be installed with at least one fire proof plate and a surface of the fire proof plate is coated with an anti-electric static layer.
Abstract:
An integrated circuit device comprises a semiconductor substrate, a first memory block on the substrate comprising NAND memory cells, a second memory block on the substrate comprising NAND memory cells, and controller circuitry. The first and second memory blocks are configurable to store data for a first pattern of data usage in response to a first operation algorithm to read, program and erase data, and for a second pattern of data usage in response to a second operation algorithm to read, program and erase data, respectively. The controller circuitry is coupled to the first and second memory blocks, and is configured to execute the first and second operation algorithms, wherein a word line pass voltage for read operations applied in the first operation algorithm is at a lower voltage level than a second word line pass voltage for read operations applied in the second operation algorithm.
Abstract:
A handheld electronic device including a first body, a second body and a moving mechanism is provided. The second body is stacked under the first body. A side of the second body facing the first body has a concave portion. The moving mechanism includes a first sliding member, a second sliding member and an elevating mechanism. The first sliding member is fixed to the first body. The second sliding member is slidingly disposed at the first sliding member. The elevating mechanism is connected between the second body and the second sliding member. After the first sliding member drives the first body to shift relatively to the second body to reach the concave portion, the first body compresses the elevating mechanism and enters the concave portion.
Abstract:
A sliding electronic device includes a first component, a second component, a connecting element and a torsion element. The second component faces the first component. The connecting element is disposed between the first component and the second component, and has a first end and a second end, wherein the first end is rotatably disposed within the first component, and the second end is movably disposed within the second component. The torsion element connecting the first component to the connecting element is for providing torque to drive the connecting element. When a relative movement between the first component and the second component is generated under an applied force, the connecting element and the torsion element cause the second component to move between a close location and an open location on the first component.
Abstract:
A portable electronic device is provided and includes a first casing, a touch input unit, a switch, and a movable member. The touch input unit and the switch are disposed in the first casing, wherein the touch input unit is exposed to a first surface of the portable electronic device. The movable member is disposed on a second surface of the portable electronic device and is movable relative to the first casing, wherein the second surface is opposite to the first surface. The movable member is coupled with the touch input unit and the switch. Specifically, the movable member activates the switch when pressed.
Abstract:
A programming method for programming stored bits in floating gates of a flash memory cell or selected flash memory cells of a flash memory array is utilized for applying SSI injection on said flash memory cell or said selected flash memory cells of a flash memory array is disclosed. Constant charges at the drain regions of said flash memory cell or said selected flash memory cells of the flash memory array is implemented with a capacitor and a related switch for suppressing variant injected-charges-related properties in applying the SSI injection. A constant biasing current, which may be implemented with a constant current source or a current mirror equipped with a constant current source, is applied on source regions of said flash memory cell or said selected flash memory cells of the flash memory array for enhancing the suppression of said variant biasing properties.
Abstract:
A method for programming a split gate memory cell comprises the following steps. First, a split gate memory cell formed on a semiconductor substrate of a first conductive type, e.g., p-type, is provided. The split gate memory cell has two bitlines of a second conductive type, e.g., n-type, a select gate, a floating gate, a wordline and a dielectric layer deposited between the floating gate and the semiconductor substrate, wherein the select gate and floating gate are transversely disposed between the two bitlines, the wordline is above the select gate and floating gate. Second, a positive voltage is applied to the wordline so as to turn on the floating gate, and a negative voltage is applied to the bitline next to the floating gate, whereby a bias voltage across the tunnel dielectric layer is generated for programming, that is, the so called F-N programming.
Abstract:
The application provides an electronic device. The electronic device includes a main body and a cover. The main body has a sheet and the sheet includes a first key set and a second key set. The cover, slidably disposed on the main body between a first configuration and a second configuration, includes a first portion and a second portion connected thereto. The first key set is visible through the first portion and the second portion covers the second key set when the cover is in the first configuration, and the second key set is visible through the first portion and the second portion covers the first key set when the cover is in the second configuration.