Abstract: A model file management method includes that a terminal device receives a storage address of a target model file package from a server and the terminal device obtains the target model file package based on the storage address of the target model file package, where the target model file package is based on a parameter of a model file package locally stored in the terminal device and a parameter of a model file package managed by the server. In an artificial intelligence (AI) field, an application may implement a specific function by using an AI model file. An application is decoupled from an AI model file such that the terminal device performs centralized management on a general model file.

Abstract: The present disclosure provides a method and device for intelligent control of heating furnace combustion based on a big data cloud platform, which relates to the technical field of artificial intelligence control. The method includes: construction of big data cloud platform based on production and operation parameters of the heating furnace; identification of key factors in the production process of the heating furnace by using big data mining technology; independent deployment of traditional heating furnace combustion control systems based on the mechanism model; and integration of cloud platform big data expert knowledge base and the heating furnace combustion intelligent control system.

Abstract: Distributed management of analytics tasks in a programmable network (100) having a controller (SDNC, 10, 11), a plurality of network nodes (20, N1-N5) coupled to the controller by a Data Communications Network DCN, and a plurality of analytics servers (30) each coupled to a network node, involves the controller selecting which of the analytics servers to use for an analytics task. The selection is based on how data logged by respective ones of the network nodes and needed for that analytics task, can be routed to the analytics servers. The controller sends to the selected analytics server, an indication of the analytics task and an indication of what data logged by the network nodes is to be used in the analytics task.

Abstract: Distributed management of analytics tasks in a programmable network (100) having a controller (SDNC, 10, 11), a plurality of network nodes (20, N1-N5) coupled to the controller by a Data Communications Network DCN, and a plurality of analytics servers (30) each coupled to a network node, involves the controller selecting which of the analytics servers to use for an analytics task. The selection is based on how data logged by respective ones of the network nodes and needed for that analytics task, can be routed to the analytics servers. The controller sends to the selected analytics server, an indication of the analytics task and an indication of what data logged by the network nodes is to be used in the analytics task.

Abstract: An electrical connector (1) for electrically connecting with a modular plug (2) includes an insulative housing (10) having a receiving cavity (100) and a resisting block (126) formed in the receiving cavity and having a curved surface (122). A number of contacts (20) is mounted in the receiving cavity. Each contact has a mating portion (21) extending into the receiving cavity and cantilevered above the resisting block. The modular plug is engaged with the mating portion and presses the mating portion to the resisting block when the modular plug is inserted into the receiving cavity. When the plug connector is inserted into the receiving cavity, the mating potion abuts against the curved surface.

Abstract: The invention discloses a mobile communication apparatus. The mobile communication apparatus includes a sensing module, a determining module, and a switching module. The sensing module senses a rotational parameter of the mobile communication apparatus. The determining module is electrically connected to the sensing module for determining whether the rotational parameter reaches a threshold. The switching module is electrically connected to the determining module for switching the mobile communication apparatus to a first communication mode or maintaining the mobile communication apparatus in the first communication mode when determining that the rotational parameter reaches the threshold.

Abstract: An electrical connector (100) has an insulative housing (10) including a top wall (12), a bottom wall (13) and a pair of opposite side walls (14), an upper shell (31) and a lower shell (32) locking with the upper shell. The upper shell has a top plate (311) and a pair of side plates (312) at least partially enclose the bottom and the side walls of the housing. The upper shell has a bottom plate (321) and a pair of side wings (322) at least partially enclosing the top and the side walls of the housing. Each side wall of the insulative housing includes a flange portion (17) protruding outwardly therefrom. The side wing of the lower shell are guided onto the side plates of the upper shell by the flange portions and partially overlapping with the upper shell.

Abstract: A modular jack (100) adapted for receiving a pair of mating connectors includes an insulative housing (1) having a pair of cavities (10) for receiving the corresponding mating connectors, a number of terminal modules (3) received in the cavities for electrically connecting with the mating connector, and a conductive outer shield (2) enclosing the corresponding insulative housing. The modular jack further has a detachable grounding member (7) made from conductive material and electrically connected with the conductive outer shield for grounding. The grounding member has a number of contacting plates (7121,7131,7141) extending into the corresponding cavities for connecting and grounding the corresponding mating connectors.

Abstract: An electrical connector (100) includes an insulative housing (10), a number of first contacts (20), a contact module (30) and a metallic shell (40). The insulative housing has a mating face (14), a first receiving cavity (15) and a second receiving cavity (16) recessed from the mating face. The first contacts are disposed in the insulative housing. The contact module is received in the second receiving cavity and has an insulative base (31), a number of second contacts (32) and a shielding plate (33). The metallic shell is attached to the mating face of the insulative housing and having a plate section (41) defining a central opening (410) in alignment with the first receiving cavity, and a pair of opposite ends (42) extending from the plate section and inserted in the insulative housing. The metallic shell has electrical connection with the shielding plate of the contact module.

Abstract: An electrical connector (100) includes an insulative housing (10), a number of first contacts (20), a contact module (30) and a metallic shell (40). The insulative housing has a mating face (14), a first receiving cavity (15) and a second receiving cavity (16) recessed from the mating face. The first contacts are disposed in the insulative housing. The contact module is received in the second receiving cavity and has an insulative base (31), a number of second contacts (32) and a shielding plate (33). The metallic shell is attached to the mating face of the insulative housing and having a plate section (41) defining a central opening (410) in alignment with the first receiving cavity, and a pair of opposite ends (42) extending from the plate section and inserted in the insulative housing. The metallic shell has electrical connection with the shielding plate of the contact module.

Abstract: A modular jack (100) for receiving a mating plug includes a visual indicator (3) having a lighting pipe (31), a pair of pins (32) extending from the lighting pipe and a separate guiding pipe (33), and an insulative housing (1) including a front face (1), an opposite rear face (13), side faces (12) connecting with the front face and rear face. The insulative housing defines a pipe slot (152) extending through the front face and the side face for receiving the guiding pipe, and further has a receiving channel (152) in communication with the pipe slot for receiving the lighting pipe and a number of pin slots (151) extending rearwardly and through the rear face of the housing for receiving the pins.

Abstract: A modular jack (100) for receiving a mating plug includes a visual indicator (3) having a lighting pipe (31), a pair of pins (32) extending from the lighting pipe and a separate guiding pipe (33), and an insulative housing (1) including a front face (1), an opposite rear face (13), side faces (12) connecting with the front face and rear face. The insulative housing defines a pipe slot (152) extending through the front face and the side face for receiving the guiding pipe, and further has a receiving channel (152) in communication with the pipe slot for receiving the lighting pipe and a number of pin slots (151) extending rearwardly and through the rear face of the housing for receiving the pins.

Abstract: An electrical connector (1) for electrically connecting with a modular plug (2) includes an insulative housing (10) having a receiving cavity (100) and a resisting block (126) formed in the receiving cavity and having a curved surface (122). A number of contacts (20) is mounted in the receiving cavity. Each contact has a mating portion (21) extending into the receiving cavity and cantilevered above the resisting block. The modular plug is engaged with the mating portion and presses the mating portion to the resisting block when the modular plug is inserted into the receiving cavity. When the plug connector is inserted into the receiving cavity, the mating potion abuts against the curved surface.

Abstract: An electrical connector (100) has an insulative housing (10) including a top wall (12), a bottom wall (13) and a pair of opposite side walls (14), an upper shell (31) and a lower shell (32) locking with the upper shell. The upper shell has a top plate (311) and a pair of side plates (312) at least partially enclose the bottom and the side walls of the housing. The upper shell has a bottom plate (321) and a pair of side wings (322) at least partially enclosing the top and the side walls of the housing. Each side wall of the insulative housing includes a flange portion (17) protruding outwardly therefrom. The side wing of the lower shell are guided onto the side plates of the upper shell by the flange portions and partially overlapping with the upper shell.

Abstract: A modular jack (100) adapted for receiving a pair of mating connectors includes an insulative housing (1) having a pair of cavities (10) for receiving the corresponding mating connectors, a number of terminal modules (3) received in the cavities for electrically connecting with the mating connector, and a conductive outer shield (2) enclosing the corresponding insulative housing. The modular jack further has a detachable grounding member (7) made from conductive material and electrically connected with the conductive outer shield for grounding. The grounding member has a number of contacting plates (7121,7131,7141) extending into the corresponding cavities for connecting and grounding the corresponding mating connectors.

Abstract: A modular jack (100) includes a number of visual indicators (40), an insulative housing (10) having a pair of receiving spaces (11, 12), a number of retention sections (101) for engaging with the visual indicators and a terminal module (20). The retention section defines an opening, a rear wall (16), a bottom wall (14), a pair of side walls (17), a cantilevered arm (15) including a top surface (151) and a wedge-shaped bottom surface (152). The top surface has a second ramp (155) extending forwardly and downwardly. The bottom surface has a contacting portion (153) for resisting against the visual indicator and a first ramp (154) rearwardly upwardly extending from the contacting portion.

Abstract: An electrical connector (100) mounted on an outer PCB for mating with corresponding plugs includes an insulative housing (1), a couple of contact modules (3) and a metal shield (2) enclosing the insulative housing. The housing includes a first plug-receiving cavity (101) and a second plug-receiving cavity (102) stacked under the first cavity (101). The contact modules (3) include a number of conductive contacts (33) defining a plurality of inclined contact portions (331) extending into the cavities (101, 102). The metal shield includes a planar top face (21), a pair of side face (22) integrally extending downward from the lateral edges of the top face, and a slant rear face (23) integrally bending from the side face. A lower edge of said side face is larger than an upper edge of the side face in a plug insertion direction.

Abstract: A modular jack (100) includes a number of visual indicators (40), an insulative housing (10) having a pair of receiving spaces (11, 12), a number of retention sections (101) for engaging with the visual indicators and a terminal module (20). The retention section defines an opening, a rear wall (16), a bottom wall (14), a pair of side walls (17), a cantilevered arm (15) including a top surface (151) and a wedge-shaped bottom surface (152). The top surface has a second ramp (155) extending forwardly and downwardly. The bottom surface has a contacting portion (153) for resisting against the visual indicator and a first ramp (154) rearwardly upwardly extending from the contacting portion.

Abstract: An electrical connector (100) mounted on an outer PCB for mating with corresponding plugs includes an insulative housing (1), a couple of contact modules (3) and a metal shield (2) enclosing the insulative housing. The housing includes a first plug-receiving cavity (101) and a second plug-receiving cavity (102) stacked under the first cavity (101). The contact modules (3) include a number of conductive contacts (33) defining a plurality of inclined contact portions (331) extending into the cavities (101, 102). The metal shield includes a planar top face (21), a pair of side face (22) integrally extending downward from the lateral edges of the top face, and a slant rear face (23) integrally bending from the side face. A lower edge of said side face is larger than an upper edge of the side face in a plug insertion direction.

Abstract: This invention is related to an electrical connector assembly (10), the electrical connector assembly includes an insulative housing (1) defining a first aperture (112) and a second aperture (111) therein for receiving a complementary USB connector and a complementary RJ-45 connector respectively, a contact module (2) received in the insulative housing, an inner shield inserted in the first aperture along a mating direction of the mating of the complementary USB connector, and an outer shield (4) enclosing the insulative housing. The inner shield has two opposite plates and a plates-interconnecting section sandwiched between the outer shield and the insulative housing.