mhurhangee/ep-ind-claims huggingface dataset:
A capsule comprising: - a casing that extends about an axis, which comprises a base wall and a side wall defining a cavity containing an initial product to be joined to a fluid to obtain a final product, and a flanged edge (204; 212; 214; 217) extending from said side wall; - a covering element, fixed to the flanged edge (204; 212; 214; 217) to close the cavity; - a sealing element, associated with the flanged edge (204; 212; 214; 217) to make a fluidic seal with a dispensing machine; wherein - the sealing element comprises a cellulose-based ring; characterized in that - the ring comprises a stratified structure which comprises at least two cellulose-based layers (404; 406), between which there is an outer layer arranged towards the outside and configured to contact the dispensing machine and an inner layer; a joining layer to enable the ring to be joined to the flanged edge (204; 212; 214; 217); a further joining layer, to join together the two cellulose-based layers (404; 406). - a casing that extends about an axis, which comprises a base wall and a side wall defining a cavity containing an initial product to be joined to a fluid to obtain a final product, and a flanged edge (204; 212; 214; 217) extending from said side wall; - a covering element, fixed to the flanged edge (204; 212; 214; 217) to close the cavity; - a sealing element, associated with the flanged edge (204; 212; 214; 217) to make a fluidic seal with a dispensing machine; wherein - the sealing element comprises a cellulose-based ring; characterized in that - the ring comprises a stratified structure which comprises at least two cellulose-based layers (404; 406), between which there is an outer layer arranged towards the outside and configured to contact the dispensing machine and an inner layer; a joining layer to enable the ring to be joined to the flanged edge (204; 212; 214; 217); a further joining layer, to join together the two cellulose-based layers (404; 406).
A method for operating a base station of a wireless communication network, the base station comprising an antenna array having a plurality of antennas configured to communicate wirelessly with terminal devices (20; 41-44) positioned within a coverage area (30; 50) of the base station, a spatial transmission characteristic of the antenna array being configurable by applying precoding information, the method comprising: - determining the precoding information for concentrating a radio frequency power of a transmitted radio frequency signal to a group of terminal devices arranged in a sub area (31-39; 51-55) of the coverage area (30; 50) of the base station, - applying the determined precoding information to the antenna array, - transmitting, from the base station to the group of terminal devices, a synchronization signal using the precoding information, - receiving time interval information from at least one terminal device of the group of terminal devices, the time interval information indicating a required maximum time interval for synchronizing the at least one terminal device, and - determining, based on the time interval information, schedule information indicating a schedule for transmitting the synchronization signal using the precoding information. - determining the precoding information for concentrating a radio frequency power of a transmitted radio frequency signal to a group of terminal devices arranged in a sub area (31-39; 51-55) of the coverage area (30; 50) of the base station, - applying the determined precoding information to the antenna array, - transmitting, from the base station to the group of terminal devices, a synchronization signal using the precoding information, - receiving time interval information from at least one terminal device of the group of terminal devices, the time interval information indicating a required maximum time interval for synchronizing the at least one terminal device, and - determining, based on the time interval information, schedule information indicating a schedule for transmitting the synchronization signal using the precoding information.
A control method for braking backup in autonomous driving, comprising: receiving a status indication of an execution module associated with braking and a status indication of a function module associated with stability control; determining, based at least in part on the received status indication of the execution module associated with braking and the received status indication of the function module associated with stability control, a braking capability of the execution module associated with braking; and assigning a braking command based at least in part on the received status indication of the execution module associated with braking and the determined braking capability of the execution module associated with braking. receiving a status indication of an execution module associated with braking and a status indication of a function module associated with stability control; determining, based at least in part on the received status indication of the execution module associated with braking and the received status indication of the function module associated with stability control, a braking capability of the execution module associated with braking; and assigning a braking command based at least in part on the received status indication of the execution module associated with braking and the determined braking capability of the execution module associated with braking.
A system for non-invasively evaluating or monitoring an intra-abdominal pressure and/or a risk of incisional hernia of a subject at a preventive stage and/or a pre-operative stage and/or a post-operative stage, the system comprising a device and a treatment unit connected to the device, said device comprising: - an adjustable and flexible frame (12, 21), the frame comprising a central area (231, 31), a left lateral area (233, 33) and a right lateral area (232, 32), each area having a contact face adapted to face the skin of a subject and an opposed external face; - a network of main sensors (11, 35) suitable for measuring local deformations and/or local forces on the surface of the abdomen of the subject, said network of main sensors being assembled to the frame, wherein at least one main sensor is located in each area of the frame; - connecting means adapted for connecting said network of main sensors to a treatment unit (2, 22); characterized in that the treatment unit (2, 22) comprises means for recording and treating all or part of the measured local deformations and/or local forces on the surface of the subject and correlating the measured local deformations and/or local forces on the surface of the abdomen of the subject with deep muscular wall behaviors. - an adjustable and flexible frame (12, 21), the frame comprising a central area (231, 31), a left lateral area (233, 33) and a right lateral area (232, 32), each area having a contact face adapted to face the skin of a subject and an opposed external face; - a network of main sensors (11, 35) suitable for measuring local deformations and/or local forces on the surface of the abdomen of the subject, said network of main sensors being assembled to the frame, wherein at least one main sensor is located in each area of the frame; - connecting means adapted for connecting said network of main sensors to a treatment unit (2, 22);
A handle structure for a carton (90; 190; 290; 390A; 390B; 390C; 390D; 390E; 390F; 390G; 390H) comprising: at least one panel (12; 112; 212; 312) forming at least one exterior wall of the carton and having opposed end edges (27a, 27b; 127a, 127b; 227a, 227b; 327a, 327b); a handle strap (22; 122; 222; 322A; 322B; 322C) disposed inwardly of the at least one panel and extending between the end edges; a grip member (36; 136; 236; 336A; 336B; 336C) struck from the at least one panel, the grip member mounted on the handle strap; and characterised by the handle structure further comprising an aperture (A3, A4; 325A, 325B) in the at least one panel, with a first portion of the handle strap being visible through the aperture, the aperture being struck from the at least one panel apart from the grip member or the aperture being struck from the at least one panel so as to define an end edge of the grip member. at least one panel (12; 112; 212; 312) forming at least one exterior wall of the carton and having opposed end edges (27a, 27b; 127a, 127b; 227a, 227b; 327a, 327b); a handle strap (22; 122; 222; 322A; 322B; 322C) disposed inwardly of the at least one panel and extending between the end edges; a grip member (36; 136; 236; 336A; 336B; 336C) struck from the at least one panel, the grip member mounted on the handle strap; and characterised by the handle structure further comprising an aperture (A3, A4; 325A, 325B) in the at least one panel, with a first portion of the handle strap being visible through the aperture, the aperture being struck from the at least one panel apart from the grip member or the aperture being struck from the at least one panel so as to define an end edge of the grip member.
A method for connecting a first electronic device to internet through a second electronic device, comprising: the first electronic device broadcasting an acoustic signal which carries configuration information for configuring an access point for accessing internet, where the configuration information comprises an access point identifier, where the configuration information is adapted to be extracted from the acoustic signal by the second electronic device that receives the acoustic signal and is adapted to be used to configure the second electronic device itself as the access point for accessing internet; searching by the first electronic device an access point for accessing internet having the identifier; when the access point having the identifier is detected by the first electronic device: the first electronic device sending to the access point a request for connecting to it to access an internet service and the first electronic device connecting to internet through the access point after a notice of permission is received from the access point. the first electronic device broadcasting an acoustic signal which carries configuration information for configuring an access point for accessing internet, where the configuration information comprises an access point identifier, where the configuration information is adapted to be extracted from the acoustic signal by the second electronic device that receives the acoustic signal and is adapted to be used to configure the second electronic device itself as the access point for accessing internet; searching by the first electronic device an access point for accessing internet having the identifier; when the access point having the identifier is detected by the first electronic device: the first electronic device sending to the access point a request for connecting to it to access an internet service and the first electronic device connecting to internet through the access point after a notice of permission is received from the access point.
Method for giving clients (1, 2, 3) access to a server service of a server in a network using an OPC-UA, wherein - the server service provides the clients (1, 2, 3) with varying values of at least one variable, - a client (1, 2, 3) registers for the server service by transmitting a subscription registration (5.1, 5.2, 5.3) for the server service to the server, - the server creates, for the server service, a subscription structure (S1, S2, S3) having a unique subscription ID and a TCP/IP multicast group which is associated with this subscription structure (S1, S2, S3) and has a unique multicast address, - the server communicates the multicast address and the subscription ID to each client (1, 2, 3) registering for the server service by means of a subscription registration (5.1, 5.2, 5.3), and - the server transmits each value change in the value of each variable of the server service to the multicast address using a multicast message via the network, with the result that all clients (1, 2, 3) registered for the server service receive the same multicast message, characterized in that, in order to register a client (1, 2, 3) for the server service, the OPC-UA communication stack (1.2) of the client (1, 2, 3) inserts a data item into the registration data transmitted to the server, which data item shows the client (1, 2, 3) to be a client (1, 2, 3) supporting multicast subscriptions. - the server service provides the clients (1, 2, 3) with varying values of at least one variable, - a client (1, 2, 3) registers for the server service by transmitting a subscription registration (5.1, 5.2, 5.3) for the server service to the server, - the server creates, for the server service, a subscription structure (S1, S2, S3) having a unique subscription ID and a TCP/IP multicast group which is associated with this subscription structure (S1, S2, S3) and has a unique multicast address, - the server communicates the multicast address and the subscription ID to each client (1, 2, 3) registering for the server service by means of a subscription registration (5.1, 5.2, 5.3), and - the server transmits each value change in the value of each variable of the server service to the multicast address using a multicast message via the network, with the result that all clients (1, 2, 3) registered for the server service receive the same multicast message,
A method of manufacturing an injection molded product, the method comprising: providing at least one mold (14, 16; 100) which comprises a highly even contact surface and an irregular minute prominent contact surface having a profile having an arithmetic mean deviation higher than an arithmetic mean deviation of a profile of the highly even surface; and injecting a melting liquid into the at least one mold to form the product; wherein the providing of the at least one mold (14, 16; 100) comprises: - processing a contact surface of the mold (14, 16; 100) to the highly even contact surface by a polishing process, - adhering a film on which a transcription material is attached as a predetermined pattern on the highly even contact surface, - removing the film after adhering the transcription material on the highly even contact surface, - forming the irregular minute prominent contact surface on the highly even contact surface by sand blasting using the transcription material as a mask, and - removing the transcription material from the contact surface of the mold. providing at least one mold (14, 16; 100) which comprises a highly even contact surface and an irregular minute prominent contact surface having a profile having an arithmetic mean deviation higher than an arithmetic mean deviation of a profile of the highly even surface; and injecting a melting liquid into the at least one mold to form the product; wherein the providing of the at least one mold (14, 16; 100) comprises: - processing a contact surface of the mold (14, 16; 100) to the highly even contact surface by a polishing process, - adhering a film on which a transcription material is attached as a predetermined pattern on the highly even contact surface, - removing the film after adhering the transcription material on the highly even contact surface, - forming the irregular minute prominent contact surface on the highly even contact surface by sand blasting using the transcription material as a mask, and - removing the transcription material from the contact surface of the mold. - processing a contact surface of the mold (14, 16; 100) to the highly even contact surface by a polishing process, - adhering a film on which a transcription material is attached as a predetermined pattern on the highly even contact surface, - removing the film after adhering the transcription material on the highly even contact surface, - forming the irregular minute prominent contact surface on the highly even contact surface by sand blasting using the transcription material as a mask, and - removing the transcription material from the contact surface of the mold.
A control device for controlling a control object, the control device comprising: a storage unit configured to store a first program to be scanned as a whole for each execution and a second program that is sequentially executed; an execution processing unit configured to compute a first command value by executing the first program at every predetermined control cycle; an interpreter configured to interpret at least a part of the second program and to generate an intermediate code; a command value computation unit configured to compute a second command value at every control cycle according to the intermediate code generated in advance by the interpreter, wherein the intermediate code includes a function for the command value computation unit to compute the second command value at every control cycle; and an output unit configured to output the first command value computed by the execution processing unit and the second command value computed by the command value computation unit at every control cycle. a storage unit configured to store a first program to be scanned as a whole for each execution and a second program that is sequentially executed; an execution processing unit configured to compute a first command value by executing the first program at every predetermined control cycle; an interpreter configured to interpret at least a part of the second program and to generate an intermediate code; a command value computation unit configured to compute a second command value at every control cycle according to the intermediate code generated in advance by the interpreter, wherein the intermediate code includes a function for the command value computation unit to compute the second command value at every control cycle; and an output unit configured to output the first command value computed by the execution processing unit and the second command value computed by the command value computation unit at every control cycle.
An anti-VEGF antibody, wherein the antibody is bispecific and the heavy chain variable region comprises: (a) the substitutions G at Kabat 28 and Y at Kabat 31 in CDR-H1, and Q at Kabat 100a in CDR-H3; (b) the substitutions Y at Kabat 28 and Y at Kabat 31 in CDR-H1, and Q at Kabat 100a in CDR-H3; or (c) the substitutions G at Kabat 28 and Y at Kabat 31 in CDR-H1, and A at Kabat 100a in CDR-H3; wherein, other than said substitutions, the antibody has a heavy chain variable region according to SEQ ID NO:1 and a light chain variable region according to SEQ ID NO: 2. (a) the substitutions G at Kabat 28 and Y at Kabat 31 in CDR-H1, and Q at Kabat 100a in CDR-H3; (b) the substitutions Y at Kabat 28 and Y at Kabat 31 in CDR-H1, and Q at Kabat 100a in CDR-H3; or (c) the substitutions G at Kabat 28 and Y at Kabat 31 in CDR-H1, and A at Kabat 100a in CDR-H3;
A plant water dynamics sensor for measuring water dynamics in a plant, comprising: at least one heater-equipped temperature probe which is rod-shaped and includes a temperature sensor and a heater; at least one temperature probe which is rod-shaped and includes a temperature sensor; at least one electrical resistance probe which is rod-shaped and includes an electrical resistance measurement electrode for measuring the electrical resistance of sap in the plant; and a support that supports the heater-equipped temperature probe, the temperature probe, and the electrical resistance probe while the heater-equipped temperature probe, the temperature probe, and the electrical resistance probe are aligned parallel to each other. at least one heater-equipped temperature probe which is rod-shaped and includes a temperature sensor and a heater; at least one temperature probe which is rod-shaped and includes a temperature sensor; at least one electrical resistance probe which is rod-shaped and includes an electrical resistance measurement electrode for measuring the electrical resistance of sap in the plant; and a support that supports the heater-equipped temperature probe, the temperature probe, and the electrical resistance probe while the heater-equipped temperature probe, the temperature probe, and the electrical resistance probe are aligned parallel to each other.
A filter media, comprising: a pre-filter layer comprising first fibers having a median diameter of less than or equal to about 2 microns, the pre-filter layer having a thickness greater than or equal to about 20 microns, wherein the pre-filter layer has a basis weight of less than about 30 g/m 2 and an initial DOP efficiency of less than or equal to about 90%; and a second layer comprising second fibers having a median diameter of less than or equal to about 1 micron, wherein the second layer has an initial DOP efficiency of greater than or equal to about 60% and wherein the initial DOP efficiency of the second layer is greater than the pre-filter layer. a pre-filter layer comprising first fibers having a median diameter of less than or equal to about 2 microns, the pre-filter layer having a thickness greater than or equal to about 20 microns, wherein the pre-filter layer has a basis weight of less than about 30 g/m 2 and an initial DOP efficiency of less than or equal to about 90%; and a second layer comprising second fibers having a median diameter of less than or equal to about 1 micron, wherein the second layer has an initial DOP efficiency of greater than or equal to about 60% and wherein the initial DOP efficiency of the second layer is greater than the pre-filter layer.
A slag removal apparatus for removing slag from support plates provided to support an object to be processed in a cutting machine, the slag removal apparatus comprising: a scraper (110, 210, 311) including a plurality of blades (112, 212, 316) around an outer surface of a bar (111, 211, 334) crossing the support plates, and a plurality of slots (113, 213) formed in the respective blades (112, 212, 316) along a length direction and thus formed around the bar (111, 211, 334) and in a length direction of the bar; a rotation support unit (120, 220) to which the scraper (110, 210, 311) is rotatably installed; a rotation driving unit (130, 203) configured to rotate the scraper (110, 210, 311) from the rotation support unit (120, 220) to remove slag attached to the support plates by the blades (112, 212, 316); a lifting unit configured to lower the scraper (110, 210, 311) for insertion of the support plates into the slots and removing the slag, and to raise the scraper (110, 210, 311) to an original position by raising and lowering the rotation support unit (120, 220); a first transfer unit configured to move the rotation support unit (120, 220) along a length direction of the support plates to allow the scraper (110, 210, 311) to remove the slag along the length direction of the support plates. a scraper (110, 210, 311) including a plurality of blades (112, 212, 316) around an outer surface of a bar (111, 211, 334) crossing the support plates, and a plurality of slots (113, 213) formed in the respective blades (112, 212, 316) along a length direction and thus formed around the bar (111, 211, 334) and in a length direction of the bar; a rotation support unit (120, 220) to which the scraper (110, 210, 311) is rotatably installed; a rotation driving unit (130, 203) configured to rotate the scraper (110, 210, 311) from the rotation support unit (120, 220) to remove slag attached to the support plates by the blades (112, 212, 316); a lifting unit configured to lower the scraper (110, 210, 311) for insertion of the support plates into the slots and removing the slag, and to raise the scraper (110, 210, 311) to an original position by raising and lowering the rotation support unit (120, 220); a first transfer unit configured to move the rotation support unit (120, 220) along a length direction of the support plates to allow the scraper (110, 210, 311) to remove the slag along the length direction of the support plates.