Patentanwaltskanzlei WILHELM & BECK

The invention relates to an electrical terminal (15), an electrical feed-trough terminal (700), a system (10) and a method of assembling the system (10), wherein the electrical terminal (15) comprises a spring clamp (110), a busbar (105), a pin (115), and a locking device (65), wherein the spring clamp (110) comprises a feed-through section (135), a spring section (140) and a connecting section (130), wherein the pin (115) is movable along a push axis (120) between a first position and a second position different from the first position, wherein the pin (115) has a push end (175) which is arranged on the spring section (140) and the pin (115) is at least partially connected with the locking device (65), wherein the spring section (140) is bendable between a first spring shape and a second spring shape, wherein, in the first spring shape, the spring clamp (110) has less tension than in the second spring shape, and the pressure bar (160) is closer to the busbar (105) than in the second spring shape, wherein, in the second position, the clamping recess (155) of the feed-through section (135) is open and, in the first position, the clamping recess (155) is at least partially closed, wherein, in the second position, the pin (115) presses against the spring section (140), and the locking device (65) locks the pin (115) in the second position, wherein, in the first position of the pin (115), the locking device (65) is unlocked.

A system for automated generation of target mappings of data for a data lake is disclosed. The system comprises at least one data source (102), the data lake configured to store the target data, and a data processing device (104) for automated generation of target mappings for data lake. The data processing device (104) generates directed graph for the source data based on similar nodes and edges of the source data. The data processing device (104) further generates a connected network of directed graphs based on the similar nodes. The data processing device (104) further generates target mappings based on the connected network.

A system (200) and a method (100) for generating a single line diagram (SLD) of a power system. The method (100) includes receiving, by a processor (204), an input comprising specifications for generation of the SLD of the power system, in a power system design application. The method characterized by applying, by the processor (204), the input as a prompt engineering query to a model 210A and generating, by the processor (204), a system specification description (SSD) file by the model 210A based on the prompt engineering query. Further, the method includes determining, by the processor (204), the SSD file is compliant with at least one standard associated with the power system; generating, by the processor (204), the SLD based on the SSD file; and causing, by the processor (204), to display the SLD on a screen of the power system design tool.

The current invention relates to a push-in bridge connector (100), comprising a housing (101) with housing lid (103) with multiple insertion openings (105), a current rail (107) and a contacting spring array (109) with multiple contacting spring elements (111) positioned inside the housing (101) respectively, and at least one actuation member (113), wherein the contacting spring array (109) has a ridgelike shape with a connection ridge (115) connecting the multiple contacting spring elements (111), wherein the at least one actuation member (113) is movably arranged in the housing lid (103) between a neutral position (NP) and an actuation position (AP), wherein when positioned in the actuation position (AP) the actuation member (113) is arranged to actuate at least one contacting spring element (111) into a preload position (PP), wherein when positioned in the neutral position (NP) the at least one actuation member (113) is arranged to release the at least one contacting spring element (111) from the preload position (PP) into a contacting position (CP.

Disclosed is a method (300) and a system (100) for generation of a Continuous Function Chart (CFC). The method (300) includes receiving a Single Line Diagram (SLD) associated with one or more substations (160a, 160b, 160n). The SLD comprises a plurality of topology equipments. Further, the method (300) includes identifying a category associated with each topology equipment of the plurality of topology equipments, in the SLD. Furthermore, the method (300) includes determining a set of operational rules corresponding to the identified category of each topology equipment. Moreover, the method (300) includes generating the CFC corresponding to the each topology equipment based on the determined set of operational rules.

A system (304) and method of generating a communication description file for configuring devices in an automation system is disclosed. The method comprises receiving (101) an input comprising a list of signals for communication between a plurality of devices of the automation system. The method comprises determining (302) a first protocol associated with the list of signals, wherein the list of signals is to be converted to a second protocol. Further, the method comprises determining (103) a first model (514) for application of at least one conversion factor associated with the second protocol, using a second model. Furthermore, the method comprises determining (104) a mapping of the list of signals to the second protocol based on an application of at least one conversion factor. Moreover, the method comprises generating (105) the communication description file based on the mapping.

The invention relates to a snap-in bridge connector (100), comprising a housing (101) having a housing base (103), multiple side walls (105) and a housing lid (107) with multiple insertion openings (109), a current rail (111) positioned on an inside of opposing side walls (105) of the housing (101), a contacting spring array (113) with multiple contacting spring elements (115) and a preloading spring array (117) with multiple preloading spring elements (119) positioned inside the housing (101) respectively, wherein the contacting spring array (113) has a ridge shape with a connection ridge (121) connecting the multiple contacting spring elements (115), wherein each preloading spring element (119) of the multiple preloading spring elements (119) is set up to hold a respective contacting spring element (115) of the multiple contacting spring elements (115) in a preloaded position, wherein each preloading spring element (119) is set up to be actuated by a wire (200) inserted into the housing (101) via an insertion opening (109) of the housing lid (107)and to release the respective contacting spring element (115) from the preloaded position, wherein the respective contacting spring element (115) released from the preloaded position is set up to contact the inserted wire (200) to the current rail (111).

The invention relates to an electrical terminal (100), in particular an IDC-terminal (100), with a housing (101), a contacting base (103) positioned inside the housing (101) and at least one actuating unit (105), wherein the contacting base (103) comprises a contacting body (107) with at least one blade-structure (109) comprising at least one blade (111) with at least one cutting edge (113), wherein the actuating unit (105) is movable inside the housing (101) along a contacting direction (D) between a neutral position (NP) and a contacting position (CP) defined by a position of the blade-structure (109), wherein the actuating unit (105) comprises a positioning face (115) facing the blade-structure (109), wherein the housing (101) defines an accommodation space (117) between the positioning face (115) of the actuating unit (105) and the blade-structure (109) of the contacting base (103), and wherein by moving the actuating unit (105) from the neutral position (NP) to the contacting position (CP) a distance (A1) between the positioning face (115) and the blade-structure (109) is reducable.

The invention relates to an electrical terminal (15), preferably an IDC-terminal, an electrical feed-trough terminal (300), a system (10) and a method of assembling the system (10), wherein the electrical terminal (15) comprises a busbar (60), a spring clamp (65) and a blade arrangement (70), wherein the blade arrangement (70) has at least a first blade (75) which adjoins a cutting groove (110) with a groove base (100), wherein the blade arrangement (70) is arranged in an inclined manner with regard to a plug-in axis (25), wherein the spring clamp (65) comprises a conductor feed-through section (140) with a first recess (150) and a pressure bar (165), wherein the pressure bar (165) is arranged between a free end (165) of the conductor feed-through section (140) and the first recess (150), wherein the busbar (60) is connected to the blade arrangement (70) and to the spring clamp (65), wherein the spring clamp (65) may be bent at least between a first spring shape and a second spring shape differing from the first spring shape, wherein in the second spring shape, the spring clamp (65) is tensioned and the pressure bar (165) is arranged at a second minimal distance (a2) to the cutting groove (110), wherein in the first spring shape, the spring clamp (65) is tensioned in a reduced manner compared to the second spring shape and the pressure bar (165) is arranged closer to the cutting groove (110) than in the second spring shape.

The invention relates to an electrical terminal (100), in particular an IDC-terminal (100), with a housing (101), a contacting base (103) positioned inside the housing (101) and at least one contacting unit (105) for contacting a conductor (201), wherein the contacting unit (105) comprises a contacting body (107) with a blade-structure (109) comprising at least one blade (111) with at least one cutting edge (113), wherein the contacting unit (105) is movable inside the housing (101) along a contacting direction (D) between an neutral position (NP) and a contacting position (CP), wherein the housing (101) defines an accommodation space (115) between the blade-structure (109) and the conducting base (103), and wherein by moving the contacting unit (105) from the neutral position (NP) to the contacting position (CP) a distance between the blade-structure (109) and the contacting unit (103) is reducible, and wherein in the contacting position (CP) the blade-structure (109) is arranged to contact the contacting base (103).