Abstract: A semiconductor device includes a circuit layer and a nanopore layer. The nanopore layer is formed on the circuit layer and is formed with a pore therethrough. The circuit layer includes a circuit unit configured to drive a biomolecule through the pore and to detect a current associated with a resistance of the nanopore layer, whereby a characteristic of the biomolecule can be determined using the currents detected by the circuit unit.

Abstract: A high-power resistor includes a substrate, a resistor layer, two edge electrodes, and a seed layer. The substrate has a first surface. The resistor layer is mounted on the first surface of the substrate. The two edge electrodes are mounted on the resistor layer. The seed layer is mounted between the resistor layer and the two edge electrodes. A contacting surface between one of the two edge electrodes and the resistor layer is bigger than contacting side surfaces of a printed resistor layer and printed conduction layers from a conventional chip resistor, creating less electrical resistance. When high-power electricity passes through the resistor layer, heat generated by a large passing current can be equally dissipated in all directions on the contact surface. With less electrical resistance and better heat dissipation, the contacting surface enables the high-power resistor to tolerate greater electric power.

Abstract: A notebook computer includes a base, a first display device, a second display device and a camera. A first side of the first display device is pivotally connected to the base and the second display device is pivotally connected to a second side of the first display device, wherein the first side is opposite to the second side. The camera is disposed on the second display device. The second display device rotates with respect to the first display device to adjust an angle and a height of the camera.

Abstract: A method of light compensating for a computer system includes utilizing a camera of the computer system to capture a profile of a user to establish a user identity; receiving a setting signal, wherein the setting signal is used for setting an environment configuration of a display device of the computer system; and controlling the display device to compensate lights according to a plurality of first modes, a plurality of second modes and the environment configuration when the user utilizes the video camera to capture images; wherein the plurality of first modes are related to a plurality of video events created by the user, and the plurality of second modes are generated according to adjustments and setups made by the user for the plurality of first modes during each light compensating process.

Abstract: This disclosure relates to a notebook computer including a computer body and a power transmission device which having an input port and an output port opposite to each other. The input port is configured to be electrically connected to a power supply. The output port is electrically connected to the computer body. The power transmission device includes an actuating circuit and a hold circuit. The actuating circuit is electrically connected between the input port and the output port. The hold circuit is connected in parallel to the actuating circuit.

Abstract: This disclosure relates to a notebook computer including a computer body and a power transmission device which having an input port and an output port opposite to each other. The input port is configured to be electrically connected to a power supply. The output port is electrically connected to the computer body. The power transmission device includes an actuating circuit and a hold circuit. The actuating circuit is electrically connected between the input port and the output port.

Abstract: This disclosure relates to a notebook computer including a computer host, a display device, a handle, a power cable and a plug. The display device is pivotably disposed on the computer host. The handle is disposed on the computer host. The handle has a recess. The power cable includes a base portion, a distal portion and middle portion. The base portion is connected to the distal portion via the middle portion. The middle portion is connected to the computer host via the base portion. The middle portion is removably located in the recess of the handle. The plug is connected to the distal portion and detachably disposed on the computer host.

Abstract: The disclosure provides a notebook computer. The notebook computer includes a display assembly and a host assembly. The display assembly includes a first casing and a display panel. The first casing has a first accommodation space. The display panel is located in the first accommodation space. The host assembly includes a second casing, a keyboard base and a keyboard. The second casing has a second accommodation space. The keyboard base is disposed on the second casing and covers the second accommodation space. The keyboard is disposed on the keyboard base, and the first casing is pivotably disposed on the second casing. The first casing is pivotable with respect to the second casing so as to be moved to a closed position. When the first casing is in the closed position, the first casing and the second casing together surround the display panel, keyboard base and keyboard.

Abstract: The disclosure provides a notebook computer. The notebook computer includes a display assembly and a host assembly. The display assembly includes a first casing and a display panel. The first casing has a first accommodation space. The display panel is located in the first accommodation space. The host assembly includes a second casing, a keyboard base and a keyboard. The second casing has a second accommodation space. The keyboard base is disposed on the second casing and covers the second accommodation space. The keyboard is disposed on the keyboard base, and the first casing is pivotably disposed on the second casing. The first casing is pivotable with respect to the second casing so as to be moved to a closed position. When the first casing is in the closed position, the first casing and the second casing together surround the display panel, keyboard base and keyboard.

Abstract: This disclosure relates to a computer including a computer host, a screen and a keyboard. The computer host includes a first side, a second side, a third side and a fourth side. The first side and the third side are located opposite to each other. The second side and the fourth side are located between the first side and the third side and are located opposite to each other. The screen includes a first connecting side and a second connecting side opposite to each other. The first connecting side of the screen is pivotably connected to the first side of the computer host. The keyboard is pivotably connected to the second connecting side of the screen.

Abstract: A mask including patterned structures arranged sequentially along a predetermined direction and a peripheral area surrounding the patterned structures is provided. Each of the patterned structures includes an opening portion and a thinning portion surrounding the opening portion. The opening portion has through holes arranged in a matrix. An outline of the thinning portion has two side edges opposite to each other substantially parallel to the predetermined direction. The thinning portion is defined by an area demarked by the outline of the thinning portion and an outline of the opening portion. A thickness of the thinning portion is thinner than a thickness of the peripheral area.

Abstract: A polymer and a pharmaceutical composition employing the same are disclosed. The polymer includes a first repeating unit, a second repeating unit, and a third repeating unit. In particular, the first repeating unit is the second repeating unit is wherein R1 is C1-6 alkyl group; and the third repeating unit is wherein X is and Y is a hydrophilic polymeric moiety.

Abstract: A mask including patterned structures arranged sequentially along a predetermined direction and a peripheral area surrounding the patterned structures is provided. Each of the patterned structures includes an opening portion and a thinning portion surrounding the opening portion. The opening portion has through holes arranged in a matrix. An outline of the thinning portion has two side edges opposite to each other substantially parallel to the predetermined direction. The thinning portion is defined by an area demarked by the outline of the thinning portion and an outline of the opening portion. A thickness of the thinning portion is thinner than a thickness of the peripheral area.

Abstract: The disclosure provides a biomedical composition, including: a hyaluronic acid; a modified histidine; and a polymer or C4-C20 alkane, wherein the modified histidine and the polymer or C4-C20 alkane are grafted to at least one primary hydroxyl group of the hyaluronic acid to allow the hyaluronic acid to form a hyaluronic acid derivative, wherein a graft ratio of the modified histidine is about 1-100%, and a graft ratio of the polymer or C4-C20 alkane is about 0-40%.

Abstract: A polymer and a pharmaceutical composition employing the same are disclosed. The polymer includes a first repeating unit, a second repeating unit, and a third repeating unit. In particular, the first repeating unit is the second repeating unit is wherein R1 is C1-6 alkyl group; and the third repeating unit is wherein X is and Y is a hydrophilic polymeric moiety.

Abstract: A polymer composition including a polymer having a hydroxyl group and a histidine or a histidine derivative grafted to the polymer having a hydroxyl group. A polymer material is also provided, including a polymer composition which includes a polymer having a hydroxyl group, and a histidine or a histidine derivative grafted to the polymer having a hydroxyl group.

Abstract: The disclosure provides a biomedical composition, including: a hyaluronic acid; a modified histidine; and a polymer or C4-C20 alkane, wherein the modified histidine and the polymer or C4-C20 alkane are grafted to at least one primary hydroxyl group of the hyaluronic acid to allow the hyaluronic acid to form a hyaluronic acid derivative, wherein a graft ratio of the modified histidine is about 1-100%, and a graft ratio of the polymer or C4-C20 alkane is about 0-40%.

Abstract: The present disclosure provides a brush polymer, including: a linear polymer main chain; and brush structural side chains, including: a hydrophobic molecular branch, and a hydrophilic molecular branch and/or an anti-biofilm/or an anti-microbial molecular branch, wherein the linear polymer main chain is conjugated to the side chains by covalent bonds formed between a hydroxyl group and a reactive functional group, wherein the reactive functional group includes: isocyanate, carboxyl, or epoxy. The present disclosure also provides a medical application of the brush polymer.

Abstract: Disclosed is a pH-sensitive hyaluronic acid derivative, comprising at least one repeat unit as shown in the following formula (I), wherein HA represents a unit comprising N-acetyl-D-glucosamine and D-glucuronic acid, q represents an integer of 2 to 10,000; A represents a biocleavable linkage comprising at least one of hydrazone, acetal, ketal and imine; M represents at least one of a hydrophobic fragment, a hydrophilic fragment, and an amphiphilic fragment, and p represents the number of [A-M] directly grafted onto each HA unit, p represents an integer of 0 to 4, and the p of each HA unit is not 0 at the same time.

Abstract: A polymer composition including a polymer having a hydroxyl group and a histidine or a histidine derivative grafted to the polymer having a hydroxyl group. A polymer material is also provided, including a polymer composition which includes a polymer having a hydroxyl group, and a histidine or a histidine derivative grafted to the polymer having a hydroxyl group.