mhurhangee/ep-ind-claims huggingface dataset:
A method for managing a plurality of window panels within a computer software application, comprising: generating a plurality of window panels that are actively controlled by a user interface of a computer software application, each window panel comprising a plurality of user interface controls for operating the computer software application, wherein the window panels can be manually locked or unlocked; automatically closing all unlocked child window panels of the common parent window panel when the common parent window panel is manually closed, wherein all locked child window panels of the common parent window remain open when the common parent window panel is closed, and wherein a child window panel of a common parent window panel is a window panel that is generated by manually activating a user interface control displayed within the common parent window panel; and automatically fastening together child window panels adjacent to their common parent window panels, wherein unlocked child window panels of a common parent window panel are automatically fastened at a position to the right of locked child window panels of the common parent window panel, and wherein window panels that are fastened together are automatically moved together as a single rigid geometrical area when one of the fastened window panels is manually moved by a user. generating a plurality of window panels that are actively controlled by a user interface of a computer software application, each window panel comprising a plurality of user interface controls for operating the computer software application, wherein the window panels can be manually locked or unlocked; automatically closing all unlocked child window panels of the common parent window panel when the common parent window panel is manually closed, wherein all locked child window panels of the common parent window remain open when the common parent window panel is closed, and wherein a child window panel of a common parent window panel is a window panel that is generated by manually activating a user interface control displayed within the common parent window panel; and automatically fastening together child window panels adjacent to their common parent window panels, wherein unlocked child window panels of a common parent window panel are automatically fastened at a position to the right of locked child window panels of the common parent window panel, and wherein window panels that are fastened together are automatically moved together as a single rigid geometrical area when one of the fastened window panels is manually moved by a user.
An electromechanical assembly comprising an electrical machine coupled to a reduction gear, the electrical machine comprising a single bearing at the rear, either the electrical machine or the reduction gear comprising a male shaft and the other one comprising a female shaft engaged on the male shaft, the shafts having conical bearing surfaces (56, 59) and the assembly comprising an elastically deformable element biasing said shifting bearing surfaces axially relative to one another until they engage with one another.
A flange coupling part reinforcing jig comprising: a pair of clamping members (5, 6) having pressing parts (5C, 6B) capable of coming into contact respectively with outer faces of two flange parts (1A, 1B) which are bolt-connected by a connecting bolt and fastening nut; and a fastening means for fixedly fastening the two clamping members (5, 6) by drawing them to each other in a flange coupling direction, with the pressing parts (5C, 6B) of the clamping members (5, 6) being placed in abutment with the outer faces of the flange parts (1A, 1B); wherein at portions of the two clamping members (5, 6) opposed to each other in the flange coupling direction, there are formed an inner fitting part and an outer fitting part which are fitted to each other in the flange coupling direction at positions of the two flange parts (1A, 1B) more radially outward than outer circumferential faces of the two flange parts (1A, 1B), and wherein one of the pair of clamping members (5, 6) includes a detachment preventing arm adapted to come into contact, from a radial inner side, with a head portion of the connecting bolt connecting the two flange parts (1A, 1B) or the fastening nut thread-fitted to this connecting bolt. a pair of clamping members (5, 6) having pressing parts (5C, 6B) capable of coming into contact respectively with outer faces of two flange parts (1A, 1B) which are bolt-connected by a connecting bolt and fastening nut; and a fastening means for fixedly fastening the two clamping members (5, 6) by drawing them to each other in a flange coupling direction, with the pressing parts (5C, 6B) of the clamping members (5, 6) being placed in abutment with the outer faces of the flange parts (1A, 1B); wherein at portions of the two clamping members (5, 6) opposed to each other in the flange coupling direction, there are formed an inner fitting part and an outer fitting part which are fitted to each other in the flange coupling direction at positions of the two flange parts (1A, 1B) more radially outward than outer circumferential faces of the two flange parts (1A, 1B), and wherein one of the pair of clamping members (5, 6) includes a detachment preventing arm adapted to come into contact, from a radial inner side, with a head portion of the connecting bolt connecting the two flange parts (1A, 1B) or the fastening nut thread-fitted to this connecting bolt.
An ultrasound system, comprising: a user input unit configured to receive input information for setting a region of interest on a brightness mode image; and a processing unit configured to form the brightness mode image based on first ultrasound data corresponding to a target object and form vector information of the target object based on second ultrasound data corresponding to the target object, the processing unit being further configured to form a motion mode image including a brightness motion mode image and a color motion mode image based on the first ultrasound data and the vector information corresponding to the region of interest, wherein the processing unit is further configured to: extract first ultrasound data and vector information corresponding to the region of interest from the first ultrasound data and the vector information; form the brightness motion mode image based on the extracted first ultrasound data; form the color motion mode image based on the extracted vector information; and form the color motion mode image for representing a velocity and a direction of the target object as colors or color vectors including colors and arrows based on the extracted vector information. a user input unit configured to receive input information for setting a region of interest on a brightness mode image; and a processing unit configured to form the brightness mode image based on first ultrasound data corresponding to a target object and form vector information of the target object based on second ultrasound data corresponding to the target object, the processing unit being further configured to form a motion mode image including a brightness motion mode image and a color motion mode image based on the first ultrasound data and the vector information corresponding to the region of interest, wherein the processing unit is further configured to: extract first ultrasound data and vector information corresponding to the region of interest from the first ultrasound data and the vector information; form the brightness motion mode image based on the extracted first ultrasound data; form the color motion mode image based on the extracted vector information; and form the color motion mode image for representing a velocity and a direction of the target object as colors or color vectors including colors and arrows based on the extracted vector information. extract first ultrasound data and vector information corresponding to the region of interest from the first ultrasound data and the vector information; form the brightness motion mode image based on the extracted first ultrasound data; form the color motion mode image based on the extracted vector information; and form the color motion mode image for representing a velocity and a direction of the target object as colors or color vectors including colors and arrows based on the extracted vector information.
Covering device with covering plates continuing each other, in the position of use, in a common plane and in at least one row, which partially overlap in their mutual edge-side contact region, wherein edges (5, 6) running parallel to one another and spaced apart from one another on a respective covering plate are formed differently for a mutually rainproof overlapping and a web continuing the upper side of the covering plate and a rain gutter below this web are arranged on a first edge, and wherein one edge of the rain gutter is tightly connected to the covering plate having it and is set back with respect to the free edge of the web and the other edge of which is constructed as a free edge which, in the position of use, engages under a web on the edge of the adjacent covering plate at a distance, characterized in that at the edges (5, 6) of two covering plates facing and in contact with one another in the position of use camping webs (14, 15) facing each other protrude at a distance under the upper side, which overlap in the position of use and make clamping contact, in that before connecting the at least two covering plates which continue in the position of use, the clear distance between the freely ending web arranged above the first rain gutter and the associated clamping web of the same edge of the covering plate, which is located lower relative to the upper side, is smaller than the outer distance between the upper web overlapped in the position of use and the second clamping web at the second edge of the adjacent covering plate, and in that the first mentioned, freely ending web and the clamping web located at the same edge receive the counter webs clampingly in their intermediate space in the position of use.
Method for determining a motion path for an agricultural machine for the cultivation of an area of agricultural land, comprising the step: - receiving, by means of a data processing device, setting information regarding variable setting parameters on the agricultural machine and their influence on the cultivation result, characterized in that the received setting information comprises predetermined agricultural machine-specific setting ranges of the variable setting parameters and in that the method further comprises the following steps: - receiving, by means of the data processing device, topography information on the area of agricultural land to be cultivated; and - calculating, by means of the data processing device, in particular prior to the cultivation of the area of agricultural land, a topography-optimized motion path for the agricultural machine for the cultivation of the area of agricultural land, taking into account the received setting information and the received topography information, the topography-optimized motion path having already been taken into account when creating a drive aisle system on the area of agricultural land, the drive aisle system being created during a sowing procedure which uses a sowing machine, and the drive aisle system being created in advance for another agricultural machine, by means of which subsequent cultivation of the agricultural area is planned. - receiving, by means of a data processing device, setting information regarding variable setting parameters on the agricultural machine and their influence on the cultivation result, characterized in that the received setting information comprises predetermined agricultural machine-specific setting ranges of the variable setting parameters and in that the method further comprises the following steps: - receiving, by means of the data processing device, topography information on the area of agricultural land to be cultivated; and - calculating, by means of the data processing device, in particular prior to the cultivation of the area of agricultural land, a topography-optimized motion path for the agricultural machine for the cultivation of the area of agricultural land, taking into account the received setting information and the received topography information, - receiving, by means of the data processing device, topography information on the area of agricultural land to be cultivated; and - calculating, by means of the data processing device, in particular prior to the cultivation of the area of agricultural land, a topography-optimized motion path for the agricultural machine for the cultivation of the area of agricultural land, taking into account the received setting information and the received topography information, the topography-optimized motion path having already been taken into account when creating a drive aisle system on the area of agricultural land, the drive aisle system being created during a sowing procedure which uses a sowing machine, and the drive aisle system being created in advance for another agricultural machine, by means of which subsequent cultivation of the agricultural area is planned.
A method comprising: detecting a change in a weight of one or more items within a shopping cart, the weight sensed by a weight sensor disposed in the shopping cart, each of the one or more items comprising a radio-frequency identification (RFID) tag; switching an RFID reader to an active state and scanning RFID tags of the one or more items with the RFID reader in response to detecting the change in the weight, the RFID reader disposed on the shopping cart; switching the RFID reader to an inactive state subsequent to scanning the RFID tags with the RFID reader; and determining an inventory of the one or more items based on information from the scanned RFID tags, the inventory comprising an item quantity and an item identity. detecting a change in a weight of one or more items within a shopping cart, the weight sensed by a weight sensor disposed in the shopping cart, each of the one or more items comprising a radio-frequency identification (RFID) tag; switching an RFID reader to an active state and scanning RFID tags of the one or more items with the RFID reader in response to detecting the change in the weight, the RFID reader disposed on the shopping cart; switching the RFID reader to an inactive state subsequent to scanning the RFID tags with the RFID reader; and determining an inventory of the one or more items based on information from the scanned RFID tags, the inventory comprising an item quantity and an item identity.
Capacitive detection device comprising: a capacitive detector comprising - a strip made of a dielectric material, - at least one pair of electrodes comprising a first electrode in the form of a comb formed on a first face of said strip and comprising parallel transverse branches connected to each other by a longitudinal connecting branch and a second electrode in the form of a comb formed on said first face of said strip and comprising parallel transverse branches connected to each other by a longitudinal connecting branch, the transverse branches of said first and second electrodes being arranged alternatively between each other according to at least one determined period, and - at least one third electrode in the form of a layer formed on the other face of said strip, this third electrode and said pair of electrodes covering opposite zones of said strip; the device being characterised in that it further comprises a containment electrode arranged at least partially facing and remote from said pair of electrodes, this containment electrode being electrically connected to said third electrode. a capacitive detector comprising - a strip made of a dielectric material, - at least one pair of electrodes comprising a first electrode in the form of a comb formed on a first face of said strip and comprising parallel transverse branches connected to each other by a longitudinal connecting branch and a second electrode in the form of a comb formed on said first face of said strip and comprising parallel transverse branches connected to each other by a longitudinal connecting branch, the transverse branches of said first and second electrodes being arranged alternatively between each other according to at least one determined period, and - at least one third electrode in the form of a layer formed on the other face of said strip, this third electrode and said pair of electrodes covering opposite zones of said strip; - a strip made of a dielectric material, - at least one pair of electrodes comprising a first electrode in the form of a comb formed on a first face of said strip and comprising parallel transverse branches connected to each other by a longitudinal connecting branch and a second electrode in the form of a comb formed on said first face of said strip and comprising parallel transverse branches connected to each other by a longitudinal connecting branch, the transverse branches of said first and second electrodes being arranged alternatively between each other according to at least one determined period, and - at least one third electrode in the form of a layer formed on the other face of said strip, this third electrode and said pair of electrodes covering opposite zones of said strip; the device being characterised in that it further comprises a containment electrode arranged at least partially facing and remote from said pair of electrodes, this containment electrode being electrically connected to said third electrode.
A method comprising: accessing, by a transmitter physical layer, PHY, controller, data for transmission to a receiver PHY controller over a network connection; randomizing a delimiter independently of randomizing the data; selecting a disparity reset value based on the randomized delimiter to generate an initial running disparity; encoding the randomized data based on the initial running disparity; generating a frame that includes the encoded randomized data and the randomized delimiter; and transmitting the frame from the transmitter PHY controller to the receiver PHY controller. accessing, by a transmitter physical layer, PHY, controller, data for transmission to a receiver PHY controller over a network connection; randomizing a delimiter independently of randomizing the data; selecting a disparity reset value based on the randomized delimiter to generate an initial running disparity; encoding the randomized data based on the initial running disparity; generating a frame that includes the encoded randomized data and the randomized delimiter; and transmitting the frame from the transmitter PHY controller to the receiver PHY controller.
An apparatus configured to generate a partial product for a polynomial expansion, the apparatus comprising: first encoders (101a,101b,101c) at each bit position of a corresponding bit of two inputs (A,B), each of the first encoders configured to selectively generate and output one of mutually exclusive Propagation Generation Termination values based on the two inputs; a second encoder (102a,102b) configured to generate and output two candidate partial products (pp1_0, pp1_1) based on an output from a first one of the first encoders that is provided at a reference bit position of the two inputs, an output from a second one of the first encoders that is provided at an upper bit position of the two inputs, and a multiplicand; and a multiplexer configured to select one of the candidate partial products output from the second encoder. first encoders (101a,101b,101c) at each bit position of a corresponding bit of two inputs (A,B), each of the first encoders configured to selectively generate and output one of mutually exclusive Propagation Generation Termination values based on the two inputs; a second encoder (102a,102b) configured to generate and output two candidate partial products (pp1_0, pp1_1) based on an output from a first one of the first encoders that is provided at a reference bit position of the two inputs, an output from a second one of the first encoders that is provided at an upper bit position of the two inputs, and a multiplicand; and a multiplexer configured to select one of the candidate partial products output from the second encoder.
A composition comprising a PUFA product, wherein the PUFA product is EPA, the PUFA product is present in an amount greater than 96.5 wt%, and the composition comprises: - an amount of ω-6 polyunsaturated fatty acids up to 0.40 wt%; - an amount of ω-3 eicosatetraenoic acid from 0.1 to 1 wt%; - an amount of DHA up to 1 wt%; - an amount of α-linolenic acid up to 1 wt%; - an amount of stearidonic acid from 0.1 to 1 wt%; - an amount of docosapentaenoic acid up to 1 wt%; and - an amount of arachidonic acid up to 0.25 wt%. - an amount of ω-6 polyunsaturated fatty acids up to 0.40 wt%; - an amount of ω-3 eicosatetraenoic acid from 0.1 to 1 wt%; - an amount of DHA up to 1 wt%; - an amount of α-linolenic acid up to 1 wt%; - an amount of stearidonic acid from 0.1 to 1 wt%; - an amount of docosapentaenoic acid up to 1 wt%; and - an amount of arachidonic acid up to 0.25 wt%.
A network logical layering method based on Routing In Fat Tree (RIFT) protocol, comprising: sending a Link Information Element, LIE, packet and a Topology Information Element, TIE, packet to other devices in a network, and receiving LIE packets and TIE packets sent by the other devices in the network; wherein the LIE packet indicates a topology identifier, ID, of at least one topology supported by a source device which sends the LIE packet, the TIE packet comprises neighbor information carrying a target topology ID and Metric information carrying the target topology ID, and the target topology ID is the topology ID indicated by the LIE packet corresponding to the TIE packet; and performing network logical layering based on the LIE packets and the TIE packets received by a present device; wherein the other devices refer to devices except the present device, the performing network logical layering based on the LIE packets and the TIE packets received by a present device comprises: determining the devices supporting the same or partially the same topologies as the present device based on the received LIE packets and TIE packets, and then calculating and determining a topology route corresponding to the target topology ID based on the obtained neighbor information carrying the target topology ID and the obtained Metric information carrying the target topology ID, so as to determine the topology route corresponding to each topology supported by the present device, and logically layer the network based on multiple topologies. sending a Link Information Element, LIE, packet and a Topology Information Element, TIE, packet to other devices in a network, and receiving LIE packets and TIE packets sent by the other devices in the network; wherein the LIE packet indicates a topology identifier, ID, of at least one topology supported by a source device which sends the LIE packet, the TIE packet comprises neighbor information carrying a target topology ID and Metric information carrying the target topology ID, and the target topology ID is the topology ID indicated by the LIE packet corresponding to the TIE packet; and performing network logical layering based on the LIE packets and the TIE packets received by a present device; wherein the other devices refer to devices except the present device, the performing network logical layering based on the LIE packets and the TIE packets received by a present device comprises: determining the devices supporting the same or partially the same topologies as the present device based on the received LIE packets and TIE packets, and then calculating and determining a topology route corresponding to the target topology ID based on the obtained neighbor information carrying the target topology ID and the obtained Metric information carrying the target topology ID, so as to determine the topology route corresponding to each topology supported by the present device, and logically layer the network based on multiple topologies.