Abstract: A monitoring utility program into a software container in which a containerized virtual machine application is running. The monitoring utility program is to monitor the containerized virtual machine application running within the software container. Monitoring information regarding the containerized virtual machine application is periodically pulled from the monitoring utility program.

Abstract: Disclosed is a balanced to unbalanced converter, which relates to the field of semiconductor technologies. The balanced to unbalanced converter includes a first spiral coil and a second spiral coil. The first spiral coil includes: multiple rings of first metal wires; and a second metal wire, which is located above the multiple rings of first metal wires and is connected to an innermost ring of the first metal wires using a conductive plug.

Abstract: A balun structure is provided. The balun structure includes a substrate, a first coil structure and a second coil structure having a spiral shape and on the substrate. The first coil structure includes a first single-layer coil surrounding by first laminated coils that are connected to the first single-layer coil. The second coil structure can include a second single-layer coil and second laminated coils that are connected to the second single-layer coil. A projection of the first single-layer coil and a projection of the second single-layer coil on a surface of the substrate overlap with each other. A number of the second laminated coils is larger than or equal to a number of the first laminated coils. The second laminated coils are arranged alternately with the first laminated coils or the first single-layer coil in a plane parallel to the surface of the substrate.

Abstract: Disclosed is a balanced to unbalanced converter, which relates to the field of semiconductor technologies. The balanced to unbalanced converter includes a first spiral coil and a second spiral coil. The first spiral coil includes: multiple rings of first metal wires; and a second metal wire, which is located above the multiple rings of first metal wires and is connected to an innermost ring of the first metal wires using a conductive plug.

Abstract: A balun structure is provided. The balun structure includes a substrate, a first coil structure and a second coil structure having a spiral shape and on the substrate. The first coil structure includes a first single-layer coil surrounding by first laminated coils that are connected to the first single-layer coil. The second coil structure can include a second single-layer coil and second laminated coils that are connected to the second single-layer coil. A projection of the first single-layer coil and a projection of the second single-layer coil on a surface of the substrate overlap with each other. A number of the second laminated coils is larger than or equal to a number of the first laminated coils. The second laminated coils are arranged alternately with the first laminated coils or the first single-layer coil in a plane parallel to the surface of the substrate.

Abstract: A chip card ejecting mechanism includes a main body, a tray slidably fixed to the main body, a latching element, a first elastic member and a second elastic member. The tray defines a latching groove. The latching element includes latching board, a latching block protruding from the latching board, and a triggering member rotatably fixed to the main body. The first elastic member is resisted between the latching board and the main body, to make the latching block latch with the latching groove. The second elastic member is fixed to the main body and is compressed by the tray. After the triggering member rotates relative to the main body to release the latching block from the latching groove, the second elastic member decompresses to drive the tray out of the main body.

Abstract: A chip card ejecting mechanism includes a main body, a tray slidably fixed to the main body, a latching element, a first elastic member and a second elastic member. The tray defines a latching groove. The latching element includes latching board, a latching block protruding from the latching board, and a triggering member rotatably fixed to the main body. The first elastic member is resisted between the latching board and the main body, to make the latching block latch with the latching groove. The second elastic member is fixed to the main body and is compressed by the tray. After the triggering member rotates relative to the main body to release the latching block from the latching groove, the second elastic member decompresses to drive the tray out of the main body.

Abstract: A cover assembly includes a main body, a control, an outer cover, a protective cover, and a transmitting member. The control is slidably mounted in the main body. The outer cover is detachably mounted in the main body. A protective cover is rotatably engaged in the outer cover. A transmitting member is rotatably mounted in the main body, with one end fixed on the control and another end engaging the protective cover. The control slides relative to the main body, and the transmitting member rotates the protective cover relative to the outer cover.

Abstract: A backlight keyboard (100) includes a plurality of keys (120), a light guide plate (140), and an elastic element (160). Each key includes a key cover (124) and a keypad (122) integrally connected to each other. Further, keypad portions of adjacent keys are integrally connected, as well. The light guide plate is arranged below the keys. The light guide plate defines a plurality of through holes (142), each through hole corresponding to one key. An opaque film (144) is coated on a top surface of the light guide plate. The elastic element is positioned under the light guide plate and is configured for exerting a biasing force on at least one key so as to enable the key to return to its previous position when pressed and released.

Abstract: A housing assembly (100), used, e.g., in a mobile device (300), includes a housing body (10) and a display unit (20). The housing body a view opening (110). The display unit is received in the view opening and is configured for providing information and/or graphics. The housing body moldingly receives the view lens therein, via an injection molding process.

Abstract: A cover assembly includes a main body, a control, an outer cover, a protective cover, and a transmitting member. The control is slidably mounted in the main body. The outer cover is detachably mounted in the main body. A protective cover is rotatably engaged in the outer cover. A transmitting member is rotatably mounted in the main body, with one end fixed on the control and another end engaging the protective cover. The control slides relative to the main body, and the transmitting member rotates the protective cover relative to the outer cover.

Abstract: A backlight keyboard (100) includes a plurality of keys (120), a light guide plate (140), and an elastic element (160). Each key includes a key cover (124) and a keypad (122) integrally connected to each other. Further, keypad portions of adjacent keys are integrally connected, as well. The light guide plate is arranged below the keys. The light guide plate defines a plurality of through holes (142), each through hole corresponding to one key. An opaque film (144) is coated on a top surface of the light guide plate. The elastic element is positioned under the light guide plate and is configured for exerting a biasing force on at least one key so as to enable the key to return to its previous position when pressed and released.

Abstract: A housing assembly (100), used, e.g., in a mobile device (300), includes a housing body (10) and a display unit (20). The housing body a view opening (110). The display unit is received in the view opening and is configured for providing information and/or graphics. The housing body moldingly receives the view lens therein, via an injection molding process.