Abstract: A method for remotely clearing abnormal status of racks includes following steps: obtaining each information of a rack management controller (RMC) and multiple baseboard management controllers (BMCs) of a rack regularly by a management system; recording each operating action performed by manager through the management system; analyzing the information and the operating action by the management system for determining whether any RMC or BMC is under one of multiple default attention-statuses; and, automatically performing a remotely rescuing procedure to one of the RMC and the BMCs for eliminating an abnormal connection status from the RMC or the BMC when the RMC or the BMC is determined losing a connection with the management system.

Abstract: A key structure including a circuit board, a membrane, a positioning frame, a sensor module, a scissor leg, and a key cap is provided. The membrane is disposed on the circuit board and is electrically connected to each other. The positioning frame is disposed on the membrane. The sensor module is disposed on the membrane and is electrically connected to the circuit board. The scissor leg is connected to the positioning frame and is adapted to move up and down relative to the positioning frame. The key cap is detachably disposed at the scissor leg and is spaced with positioning frame. The key cap has a reflective plane and a shaft component. The reflective plane faces the membrane. The shaft component is extended from the reflective plane and penetrates through the scissor leg and the positioning frame to abut the membrane. The sensor module is aligned with the reflective plane.

Abstract: A key structure including a circuit board, a membrane, a positioning frame, a sensor module, a scissor leg, and a key cap is provided. The membrane is disposed on the circuit board and is electrically connected to each other. The positioning frame is disposed on the membrane. The sensor module is disposed on the membrane and is electrically connected to the circuit board. The scissor leg is connected to the positioning frame and is adapted to move up and down relative to the positioning frame. The key cap is detachably disposed at the scissor leg and is spaced with positioning frame. The key cap has a reflective plane and a shaft component. The reflective plane faces the membrane. The shaft component is extended from the reflective plane and penetrates through the scissor leg and the positioning frame to abut the membrane. The sensor module is aligned with the reflective plane.

Abstract: Targeted email attacks are detected using feature combinations of known abnormal emails, interflow shapes formed by an email with other emails, or both. An email received in an endpoint computer system is scanned to identify abnormal features indicative of a targeted email attack and the abnormal features of the email are checked against abnormal feature combinations. The email can also be scanned to identify an interflow shape formed by the email with other emails and the interflow shape is checked against interflow shapes of known targeted email attacks.

Abstract: An intellectual rack includes a rack management system, a rack management controller (RMC), a set of internal hardware lines, a plurality of server slots, and multiple servers respectively arranged in the server slots. The RMC is connected with each baseboard management controller (BMC) of each server through the set of internal hardware lines. The rack management system determines whether a server is replaced through the RMC and the set of internal hardwire lines, and confirms a target server slot of the replacing action when determining that one of the servers is replaced. Further, the rack management system assigns an IP address binding to the target server slot for the BMC of the newly-replaced server to replace an IP address currently used by the BMC of the newly-replaced server, so as to keep the binding effect among the target server slot, the newly-replaced server and the IP address.

Abstract: A semiconductor structure includes a first dielectric layer, a first conductive via, a second conductive via and an etch stop layer. The first conductive via and the second conductive via are respectively disposed in the first dielectric layer. The etch stop layer is disposed on the first dielectric layer and contacts the first and second conductive vias. The etch stop layer includes nitrogen-and-oxygen-doped silicon carbide (NODC).

Abstract: A semiconductor structure includes a first dielectric layer, a first conductive via, a second conductive via and an etch stop layer. The first conductive via and the second conductive via are respectively disposed in the first dielectric layer. The etch stop layer is disposed on the first dielectric layer and contacts the first and second conductive vias. The etch stop layer includes nitrogen-and-oxygen-doped silicon carbide (NODC).

Abstract: A method of adjusting windows and an electronic apparatus are provided. The method includes the following steps. A number of icons are displayed at the first screen, where the icons are respectively corresponding to programs being executed. A movement condition of the icons is detected. When multiple first icons from the icons are moved to a first side of the first screen, multiple first windows of the programs corresponding to the first icons are displayed on a second screen, and at least one scrolling bar is displayed at the first side of the first screen. A relative display position of the first windows on the second screen is adjusted according to a relative position of the at least one scrolling bar at the first side.

Abstract: A JBOD apparatus (1) having a hard disk drive (HDD) expander (11), a switch (13) and a BMC module (12) is disclosed. The HDD expander (11) is connected to a plurality of hard drives (5) respectively. The switch (13) connects the HDD expander (11) with a connecting port (14) for enabling a first transmission channel, or connects the HDD expander (11) with the BMC module (12) for enabling a second transmission channel. The BMC module (12) is connected to an Ethernet through a network port (17). The HDD expander (11) initially receives a wired transmitted command through the first transmission channel. When the BMC module (12) receives an Ethernet transmitted command through the Ethernet, it controls the switch (13) to change for enabling the second transmission channel, therefore, the BMC module (12) executes an interactive operation with the HDD expander (11) in accordance with the Ethernet transmitted command.

Abstract: A JBOD apparatus (1) having a hard disk drive (HDD) expander (11), a switch (13) and a BMC module (12) is disclosed. The HDD expander (11) is connected to a plurality of hard drives (5) respectively. The switch (13) connects the HDD expander (11) with a connecting port (14) for enabling a first transmission channel, or connects the HDD expander (11) with the BMC module (12) for enabling a second transmission channel. The BMC module (12) is connected to an Ethernet through a network port (17). The HDD expander (11) initially receives a wired transmitted command through the first transmission channel. When the BMC module (12) receives an Ethernet transmitted command through the Ethernet, it controls the switch (13) to change for enabling the second transmission channel, therefore, the BMC module (12) executes an interactive operation with the HDD expander (11) in accordance with the Ethernet transmitted command.

Abstract: A method of adjusting windows and an electronic apparatus are provided. The method includes the following steps. A number of icons are displayed at the first screen, where the icons are respectively corresponding to programs being executed. A movement condition of the icons is detected. When multiple first icons from the icons are moved to a first side of the first screen, multiple first windows of the programs corresponding to the first icons are displayed on a second screen, and at least one scrolling bar is displayed at the first side of the first screen. A relative display position of the first windows on the second screen is adjusted according to a relative position of the at least one scrolling bar at the first side.

Abstract: A drug eluting depot stent is provided. The stent has two free ends and a tubular body connected therebetween. The tubular body includes a series of rings having undulating structures. Each of the undulating structure has a bar arm and a crown connected thereto. The bar arm has a first end portion, a second end portion and a mid-section defined therebetween. The bar arm has opened regions defined at the first end portion, the mid-section, and the second end portion, respectively. The opening ratio of the mid-section is larger than that of the two end portions. With the aforementioned structure, the stress concentration at the crown region can be re-distributed towards the bar arm, and thus effectively prolonging the fatigue life of the stent.