Abstract: A computing device is provided with a drive slot with a connector for engaging a corresponding connector of a HDD, and a first locking element. The computing device includes a removable a HDD carrier for insertion into the drive slot having a bracket, a handle and an enclosure slidably attached to the bracket for securing the HDD. The handle includes a second locking element extending therefrom and configured to receive the first locking element to restrict the removable HDD carrier to vertical motion. The first locking element engages with the second locking element when the handle is in the loading position and the bracket moves relative to the enclosure to secure the hard disk drive in the bracket and connect the connector of a hard disk drive to the connector located at the drive slot when the handle transitions from the loading position to the locked position.

Abstract: A disposable ear probe cover includes a light-transmissive cover body, a flange and a spacer member. The flange is formed on the light-transmissive cover body to surround an opening end of the light-transmissive cover. The spacer member is formed on the light-transmissive cover body. Therefore, when the disposable ear probe cover is sleeved into another disposable ear probe cover which is identical to the disposable ear probe cover, the spacer member of the disposable ear probe cover supports the other disposable ear probe cover so that a void gap is defined between the flange of the disposable ear probe cover and another flange of the another disposable ear probe cover.

Abstract: A hot swappable fan module includes an outer frame, a cooling fan, a fixing element, and a light guide assembly. The cooling fan is located on one side of the outer frame. The fixing element is operable to fix the outer frame and the cooling fan. The light guide assembly includes a light guide post, a first stopping portion, and a second stopping portion. The light guide post penetrates through the cooling fan and the outer frame. The first stopping portion is located on the light guide post, and abuts against one surface of the cooling fan opposite to the outer frame. The second stopping portion is arranged opposite to the first stopping portion, is light-transmittable, and is optically coupled to the light guide post, and abuts against one surface of the outer frame opposite to the cooling fan.

Abstract: A server device is provided. The server device includes a chassis with a containing space, first and second openings. The first and second openings are located at two opposite ends of the containing space. The chassis includes a motherboard module in the containing space; a power-supply module disposed in the containing space, electrically connected to the motherboard module, and capable of plugging in and out from the chassis via the first opening, wherein the power-supply module comprises a first power port located in the first opening; a power port connector comprising a second power port located in the second opening, and configured to selectively connect to the first power port located in the first opening; and a storage array module, electrically connected to the motherboard module and the power-supply module.

Abstract: A head-mounted display device includes a wearable device, a display mainframe and a pivoting mechanism. The display mainframe includes a cover body and a display-receiving portion connected to one side of the cover body. The cover body is provided with a light transmissive area and an accommodation area in which the light transmissive area is arranged between the accommodation area and the display-receiving portion. The pivoting mechanism is pivotally connected to the wearable device and the display mainframe.

Abstract: In an embodiment, a method converts two images to a transform representation in a transform domain. For each spatial position, the method examines coefficients representing a neighborhood of the spatial position that is spatially the same across each of the two images. The method calculates a first vector in the transform domain based on first coefficients representing the spatial position, the first vector representing change from a first to second image of the two images describing deformation. The method modifies the first vector to create a second vector in the transform domain representing amplified movement at the spatial position between the first and second images. The method calculates second coefficients based on the second vector of the transform domain. From the second coefficients, the method generates an output image showing motion amplified according to the second vector for each spatial position between the first and second images.

Abstract: A method of bonding substrates includes steps as follows. Providing a curved glass substrate and a flexible light-transmissive film; moving a roller to press the flexible light-transmissive film onto the curved glass substrate so that the flexible light-transmissive film matches a curvature of the curved glass substrate to gradually fit and bond onto the curved glass substrate; sensing the attaching level of at least one local area of the flexible light-transmissive film bonded on the curved glass substrate; and adjusting a press force exerted by the roller to the local area of the flexible light-transmissive film according to the attaching level during the flexible light-transmissive film is bonded onto the curved glass substrate.

Abstract: In one embodiment, a method of amplifying temporal variation in at least two images comprises examining pixel values of the at least two images. The temporal variation of the pixel values between the at least two images can be below a particular threshold. The method can further include applying signal processing to the pixel values.

Abstract: An image capturing module applicable to a portable electronic device is provided. The image capturing module includes an approximately cylindrical casing, an image capturing sensor, an accommodation space, and at least one magnet. The casing includes a first side having a projection, and a second side, opposed to the first side, having a charging contact. The image capturing sensor is disposed on an outer surface of the casing. The accommodation space is disposed in the casing for receiving a battery. The at least one magnet is disposed between the first side of the casing and the accommodation space.

Abstract: In one embodiment, a method of amplifying temporal variation in at least two images includes converting two or more images to a transform representation. The method further includes, for each spatial position within the two or more images, examining a plurality of coefficient values. The method additionally includes calculating a first vector based on the plurality of coefficient values. The first vector can represent change from a first image to a second image of the at least two images describing deformation. The method also includes modifying the first vector to create a second vector. The method further includes calculating a second plurality of coefficients based on the second vector.

Abstract: A method of bonding substrates includes steps as follows. Providing a curved glass substrate and a flexible light-transmissive film; moving a roller to press the flexible light-transmissive film onto the curved glass substrate so that the flexible light-transmissive film matches a curvature of the curved glass substrate to gradually fit and bond onto the curved glass substrate; sensing the attaching level of at least one local area of the flexible light-transmissive film bonded on the curved glass substrate; and adjusting a press force exerted by the roller to the local area of the flexible light-transmissive film according to the attaching level during the flexible light-transmissive film is bonded onto the curved glass substrate.

Abstract: A method for adhering a film to a touch pad includes adhering a fixing bracket to a back surface of a touch pad, and aligning a plurality of screw holes of the fixing bracket with a plurality of the screw holes of a front cover of a system body, respectively, and connecting the fixing bracket and the front cover of the system body using screws or bolts that engage the screw holes. A positioning wall of a positioning frame is inserted into a gap between the touch pad and the front cover of the system body from a front surface of the touch pad. A film is aligned with an opening of the positioning frame, and the film is adhered to the front surface of the touch pad. The positioning frame is removed from the front surface of the touch pad.

Abstract: An electrical device having thermal isolation function includes a housing, a heat-generating source, a heat-conductive member, and a thermal isolation plate. The housing includes an accommodation space therein, an inner surface and an outer surface which is opposite to the inner surface. The heat-generating source is disposed in the accommodation space. The heat-conductive member is disposed in the accommodation space, and is in contact with the heat-generating source. The thermal isolation plate is disposed between the heat-conductive member and the inner surface of the housing, and the thermal isolation plate is formed with a vacuum chamber therein.

Abstract: A waterproof notebook computer includes a chassis, a flexible waterproof pad, a touchpad and a trigger switch. The chassis has a receiving space. The flexible waterproof pad is exposed from one surface of the chassis, and all edges of the flexible waterproof pad are connected to the chassis hermetically so that the receiving space of the chassis is isolated from the exterior of the chassis. The trigger switch is disposed inside the receiving space. The touchpad is disposed between the trigger switch and the flexible waterproof pad. When the touchpad is pressed towards the receiving space through the flexible waterproof pad, the flexible waterproof pad stretches to move the touchpad to trigger the trigger switch.

Abstract: The disclosure provides a positioning frame for a touch pad. The positioning frame includes a main frame and a positioning wall. The positioning wall is located at a side of the main frame and is connected to the main frame. An inner surface of the main frame and the positioning wall define an opening. An area of the opening is approximately the same as an area of a film to be adhered to the touch pad. The positioning wall is configured to insert into a gap between the touch pad and a front cover of a system body.

Abstract: A server cluster including a network switch and multiple server nodes is provided. The network switch is connected to an external network. Each server node performs an operation system and respectively includes a network port, a network chip and a south bridge chip. The network port is connected to the network switch via a cable. The network chip outputs a power-off signal according to a received power-off packet after the network switch is started. The south bridge chip outputs a shutdown signal to shut down the server node according to the power-off signal when the server node is turned on and the operation system is working normally.