mhurhangee/ep-ind-claims huggingface dataset:
A method for time aligning uplink transmissions by a mobile terminal in a mobile communication system, the mobile terminal being in communication with an aggregation access point and being configured with a time-aligned uplink reference cell and with a non-time-aligned uplink target cell, the method comprising the steps of: measuring, by the mobile terminal, transmission and/or reception time difference information relating to transmissions on the target cell and/or reference cell, determining, by the mobile terminal, a first target timing advance based on at least the measured transmission and/or reception time difference information and on a reference timing advance used for uplink transmissions on the time-aligned reference cell, time-aligning, by the mobile terminal, the uplink target cell by adjusting a timing for uplink transmissions on the uplink target cell based on the determined first target timing advance, and transmitting the measurement results and/or the first target timing advance from the mobile terminal to the aggregation access point. measuring, by the mobile terminal, transmission and/or reception time difference information relating to transmissions on the target cell and/or reference cell, determining, by the mobile terminal, a first target timing advance based on at least the measured transmission and/or reception time difference information and on a reference timing advance used for uplink transmissions on the time-aligned reference cell, time-aligning, by the mobile terminal, the uplink target cell by adjusting a timing for uplink transmissions on the uplink target cell based on the determined first target timing advance, and transmitting the measurement results and/or the first target timing advance from the mobile terminal to the aggregation access point.
Plug contact device for electrically connecting a plug to a contact jack fastened on a printed circuit board, having: - the printed circuit board, - the contact jack with: - a first clamping member with a first clamping projection, and - a second clamping member with a second clamping projection, - wherein the first clamping member is arranged opposite the second clamping member and the two clamping members (24, 26) limit a plug receiving space for receiving the plug, - a clamping frame surrounding the contact jack, - a clamping actuator designed to move the clamping frame relative to the printed circuit board in a clamping direction when the clamping actuator is operated, - wherein the clamping frame interacts with the first clamping projection and the second clamping projection such that the plug receiving space is narrowed when the clamping actuator moves the clamping frame relative to the printed circuit board in the clamping direction, characterized in that the contact jack has: - a third clamping member with a third clamping projection, and - a fourth clamping member with a fourth clamping projection, - wherein the third clamping member is arranged opposite the fourth clamping member, and the first clamping member, the second clamping member, the third clamping member and the fourth clamping member limit the plug receiving space for receiving the plug, wherein the clamping frame interacts with the first clamping projection, the second clamping projection, the third clamping projection and the fourth clamping projection such that the plug receiving space is narrowed when the clamping actuator moves the clamping frame relative to the printed circuit board in the clamping direction. - the printed circuit board, - the contact jack with: - a first clamping member with a first clamping projection, and - a second clamping member with a second clamping projection, - wherein the first clamping member is arranged opposite the second clamping member and the two clamping members (24, 26) limit a plug receiving space for receiving the plug, - a clamping frame surrounding the contact jack, - a clamping actuator designed to move the clamping frame relative to the printed circuit board in a clamping direction when the clamping actuator is operated, - wherein the clamping frame interacts with the first clamping projection and the second clamping projection such that the plug receiving space is narrowed when the clamping actuator moves the clamping frame relative to the printed circuit board in the clamping direction, - a third clamping member with a third clamping projection, and - a fourth clamping member with a fourth clamping projection, - wherein the third clamping member is arranged opposite the fourth clamping member, and the first clamping member, the second clamping member, the third clamping member and the fourth clamping member limit the plug receiving space for receiving the plug,
Feed-through arrangement for installation in a wall or floor element, comprising a feed-through with a pipe element for passing a line therethrough, and a flange element provided at the pipe element and extending outwardly away from the pipe element in spacing directions perpendicular to a central axis of the pipe element, and a flange body (3, 60), wherein the flange body (3, 60) is attached to the flange element, and the flange body (3, 60) forms a recess with axial extension, in which the flange element of the feed-through is arranged, wherein the recess in the flange body (3, 60) is open in an axial direction facing away from the pipe element of the feed-through, and the flange element coming from the axial direction facing away from the pipe element is inserted into the recess, and wherein further the flange body (3, 60) projects outwardly beyond the flange element, namely with respect to the spacing directions, and wherein the flange body (3, 60) is profiled for stiffening when viewed in an axis-parallel section. a pipe element for passing a line therethrough, and a flange element provided at the pipe element and extending outwardly away from the pipe element in spacing directions perpendicular to a central axis of the pipe element, and a flange body (3, 60), wherein the flange body (3, 60) is attached to the flange element, and the flange body (3, 60) forms a recess with axial extension, in which the flange element of the feed-through is arranged, wherein the recess in the flange body (3, 60) is open in an axial direction facing away from the pipe element of the feed-through, and the flange element coming from the axial direction facing away from the pipe element is inserted into the recess, and wherein further the flange body (3, 60) projects outwardly beyond the flange element, namely with respect to the spacing directions, and wherein the flange body (3, 60) is profiled for stiffening when viewed in an axis-parallel section.
A first mobility management node located in a core network, the first mobility management node comprising: at least one memory; and at least one processor coupled to the at least one memory and configured to: perform mobility management and bearer management of a plurality of mobile terminals having attached to the core network; receive a relocation command from a control node coupled to the core network; and perform a relocation procedure for relocating the mobility management and the bearer management of the plurality of mobile terminals to a second mobility management node in the core network in accordance with the relocation command, wherein the relocation procedure includes notifying (S903, S923, S945) each of the plurality of mobile terminals about both a second identifier indicating the second mobility management node and a third identifier indicating a third mobility management node (821, 121S), wherein the third identifier is used by each of the plurality of mobile terminals for initiating (S924, S949) a signaling procedure using the third identifier when a signaling procedure using the second identifier has failed. at least one memory; and at least one processor coupled to the at least one memory and configured to: perform mobility management and bearer management of a plurality of mobile terminals having attached to the core network; receive a relocation command from a control node coupled to the core network; and perform a relocation procedure for relocating the mobility management and the bearer management of the plurality of mobile terminals to a second mobility management node in the core network in accordance with the relocation command, wherein the relocation procedure includes notifying (S903, S923, S945) each of the plurality of mobile terminals about both a second identifier indicating the second mobility management node and a third identifier indicating a third mobility management node (821, 121S), wherein the third identifier is used by each of the plurality of mobile terminals for initiating (S924, S949) a signaling procedure using the third identifier when a signaling procedure using the second identifier has failed. perform mobility management and bearer management of a plurality of mobile terminals having attached to the core network; receive a relocation command from a control node coupled to the core network; and perform a relocation procedure for relocating the mobility management and the bearer management of the plurality of mobile terminals to a second mobility management node in the core network in accordance with the relocation command, wherein the relocation procedure includes notifying (S903, S923, S945) each of the plurality of mobile terminals about both a second identifier indicating the second mobility management node and a third identifier indicating a third mobility management node (821, 121S), wherein the third identifier is used by each of the plurality of mobile terminals for initiating (S924, S949) a signaling procedure using the third identifier when a signaling procedure using the second identifier has failed.
A photovoltaic module comprising, in the given order, a rigid protective front layer element, a front encapsulation layer element, a photovoltaic element, a rear encapsulation layer element and a rigid protective back layer element, wherein at least one of the front encapsulation layer element or rear encapsulation element comprises a polymer composition comprising - a polymer of ethylene (a) selected from: a polymer of ethylene containing one or more polar comonomer(s) selected from (Cl-C6)-alkyl acrylate comonomer(s), and optionally bears functional group(s) containing units other than said polar comonomer; or a polymer of ethylene containing one or more alpha-olefin comonomer selected from (C1-C10)-alpha-olefin comonomer; and optionally bears functional group(s) containing units; whereby the comonomer(s) of polymer (a), if present, is/are other than vinyl acetate comonomer; and - silane group(s) containing units (b); and wherein the polymer (a) has a melt flow rate, MFR 2, of less than 20 g/10 min (according to ISO 1133 at 190 °C and at a load of 2.16 kg), and wherein the polymer composition of at least one of the front or rear encapsulation layer element is not subjected to any silanol condensation catalyst, which is selected from the group of carboxylates of tin, zinc, iron, lead or cobalt or aromatic organic sulphonic acids, before or during the production process of the photovoltaic module. - a polymer of ethylene (a) selected from: a polymer of ethylene containing one or more polar comonomer(s) selected from (Cl-C6)-alkyl acrylate comonomer(s), and optionally bears functional group(s) containing units other than said polar comonomer; or a polymer of ethylene containing one or more alpha-olefin comonomer selected from (C1-C10)-alpha-olefin comonomer; and optionally bears functional group(s) containing units; whereby the comonomer(s) of polymer (a), if present, is/are other than vinyl acetate comonomer; and a polymer of ethylene containing one or more polar comonomer(s) selected from (Cl-C6)-alkyl acrylate comonomer(s), and optionally bears functional group(s) containing units other than said polar comonomer; or a polymer of ethylene containing one or more alpha-olefin comonomer selected from (C1-C10)-alpha-olefin comonomer; and optionally bears functional group(s) containing units; - silane group(s) containing units (b); and wherein the polymer (a) has a melt flow rate, MFR 2, of less than 20 g/10 min (according to ISO 1133 at 190 °C and at a load of 2.16 kg), and wherein the polymer composition of at least one of the front or rear encapsulation layer element is not subjected to any silanol condensation catalyst, which is selected from the group of carboxylates of tin, zinc, iron, lead or cobalt or aromatic organic sulphonic acids, before or during the production process of the photovoltaic module.
An electric motor, comprising a stator and a rotor that can rotate relative to the stator and that is mounted in bearing arrangements, and also comprising a motor housing (3, 12) and a vibration sensor to pick up vibrations that occur in the electric motor and that are caused by malfunctions of the bearing arrangements, whereby the electric motor is configured as an external-rotor motor, whereby the stator has a bearing support tube that is connected at one end to a ring-shaped stator flange, and bearing arrangements are arranged at a distance from each other in the bearing support tube in the direction of a center longitudinal axis (X-X) of the bearing support tube, in which a shaft of the rotor is supported, characterized in that the vibration sensor is attached - either directly or via a metal structure-borne sound-conducting element, for example, in the form of a disc, that is arranged between the vibration sensor and the stator flange - to a free surface of the stator flange that immediately adjoins the bearing support tube in the radial direction relative to the longitudinal axis (X-X), and whereby the stator flange and the bearing support tube are configured in one piece.
Horizontal forming device, in particular for horizontal flow pack machines, with at least one, in particular roller-free, forming unit, in particular a forming shoulder, and with at least one support unit, which are configured for forming a packaging material web, in particular a paper web, into a packaging material tube, wherein the forming unit and the support unit together delimit a guiding gap (122, 124) which the packaging material web can be guided through, characterized by at least one compensation unit, which is configured to movably support the forming unit and/or the support unit in such a way that, at least during a forming of the packaging material tube, the forming unit and the support unit are movable relative to each other, in particular in order to enable a compensation movement of the forming unit and/or the support unit relative to each other during a forming of the packaging material tube.
A steerable imaging catheter comprising: an elongated catheter tube having a proximal end and a distal end; at least two elongate steering elements extending along the catheter tube substantially from the proximal end to the distal end of the catheter tube to control the movement of the distal end of the catheter tube, a plurality of lumens defined by the catheter tube and extending from the proximal end to the distal end of the catheter tube; and a fiber optic cable having an imaging fiber and an illumination fiber disposed within a first lumen of the plurality of lumens, and characterized by the imaging fiber being arranged with a tube slid over the imaging fiber; the illumination fiber being arranged radially outward of the tube and within a protecting tube slid over the illumination fiber; the at least two steering elements being received in corresponding channels spaced generally equi-angularly around a circumference of the catheter tube and radially outward of the protecting tube; wherein a diameter of the steerable imaging catheter is between about 1 mm and about 4.5 mm; and wherein a second lumen of the plurality of lumens is configured as at least one of an irrigation channel and an insufflation channel. an elongated catheter tube having a proximal end and a distal end; at least two elongate steering elements extending along the catheter tube substantially from the proximal end to the distal end of the catheter tube to control the movement of the distal end of the catheter tube, a plurality of lumens defined by the catheter tube and extending from the proximal end to the distal end of the catheter tube; and a fiber optic cable having an imaging fiber and an illumination fiber disposed within a first lumen of the plurality of lumens, and characterized by
A system for cleaning a pool cleaning robot, the system comprises a controller, a communication system (18,200) and a cleaning unit; characterised in that the communication system is configured to receive information about a cleanliness of a filtering unit of the pool cleaning robot; wherein the controller is configured to determine, based on the cleanliness of the filtering unit, a cleaning process to be applied on the pool cleaning robot by the system; and wherein the cleaning unit is configured to apply the cleaning process on the pool cleaning robot.
A method of making a library of concatenated target nucleic acid molecules from a sample, the method comprising: a. attaching a first adaptor having at least one double-stranded region to each end of a double-stranded target molecule; b. contacting the sample with an exonuclease to generate partially single-stranded adaptor regions at the ends of the target molecule; c. joining at least two target molecules by hybridizing the partially single-stranded adaptor regions on each strand of the target molecules to form the double stranded adaptor regions and covalently linking the strands of the target molecules, thereby generating concatenated target molecules; d. attaching a second adaptor to the concatenated molecules, the adaptor comprising one or more of barcodes, universal amplification priming sites and sequencing priming sites thereby generating a library of concatenated target nucleic acid molecules. a. attaching a first adaptor having at least one double-stranded region to each end of a double-stranded target molecule; b. contacting the sample with an exonuclease to generate partially single-stranded adaptor regions at the ends of the target molecule; c. joining at least two target molecules by hybridizing the partially single-stranded adaptor regions on each strand of the target molecules to form the double stranded adaptor regions and covalently linking the strands of the target molecules, thereby generating concatenated target molecules; d. attaching a second adaptor to the concatenated molecules, the adaptor comprising one or more of barcodes, universal amplification priming sites and sequencing priming sites thereby generating a library of concatenated target nucleic acid molecules.
A painting system for painting a shoe sole portion (200, 600, 1000, 1411, 2910) of a shoe, the painting system comprising: a jig (400, 1318, 1410) configured to hold the shoe sole portion (200, 600, 1000, 1411, 2910) in an inverted position such that when the jig (400, 1318, 1410) is in a closed position, only a side surface (212, 1010) of the shoe sole portion (200, 600, 1000, 1411, 2910) is exposed; a computer controlled painting station that is adapted to paint the exposed side surface (212, 1010) of the shoe sole portion (200, 600, 1000, 1411, 2910) while being maintained by the jig (400, 1318, 1410); an opening station having an opening mechanism adapted to transition the jig (400, 1318, 1410) from the closed position to a fully-open position; an unloading station having an inversion mechanism that is adapted to remove the shoe sole portion (200, 600, 1000, 1411, 2910) from the jig (400, 1318, 1410) and invert the shoe sole portion (200, 600, 1000, 1411, 2910) to an upright position; and a transport assembly adapted to transport the jig (400, 1318, 1410) from a first location to the painting station, from the painting station to the opening station, and from the opening station to the unloading station. a jig (400, 1318, 1410) configured to hold the shoe sole portion (200, 600, 1000, 1411, 2910) in an inverted position such that when the jig (400, 1318, 1410) is in a closed position, only a side surface (212, 1010) of the shoe sole portion (200, 600, 1000, 1411, 2910) is exposed; a computer controlled painting station that is adapted to paint the exposed side surface (212, 1010) of the shoe sole portion (200, 600, 1000, 1411, 2910) while being maintained by the jig (400, 1318, 1410); an opening station having an opening mechanism adapted to transition the jig (400, 1318, 1410) from the closed position to a fully-open position; an unloading station having an inversion mechanism that is adapted to remove the shoe sole portion (200, 600, 1000, 1411, 2910) from the jig (400, 1318, 1410) and invert the shoe sole portion (200, 600, 1000, 1411, 2910) to an upright position; and a transport assembly adapted to transport the jig (400, 1318, 1410) from a first location to the painting station, from the painting station to the opening station, and from the opening station to the unloading station.
A data transmission method, comprising: processing, by a transmit end device, a data flow, wherein the processing comprises: adding a flow identifier indication, FII, to a header of a service data adaptation protocol layer-protocol data unit, SDAP PDU, of the data flow, wherein the FII is used to indicate whether a flow identifier, FID, is comprised in the header of the SDAP, and wherein the FII is further used to indicate whether the SDAP header includes an access stratum data flow reflective indication, ARI, and a non-access stratum data flow reflective indication, NRI, wherein if the FII indicates that the SDAP header includes the ARI and the NRI, the SDAP header further contains the ARI and the NRI, and if the FII indicates that the ARI and NRI are not included in the SDAP header, the SDAP header does not contain the ARI and the NRI; and sending, by the transmit end device, the processed data flow. processing, by a transmit end device, a data flow, wherein the processing comprises: adding a flow identifier indication, FII, to a header of a service data adaptation protocol layer-protocol data unit, SDAP PDU, of the data flow, wherein the FII is used to indicate whether a flow identifier, FID, is comprised in the header of the SDAP, and wherein the FII is further used to indicate whether the SDAP header includes an access stratum data flow reflective indication, ARI, and a non-access stratum data flow reflective indication, NRI, wherein if the FII indicates that the SDAP header includes the ARI and the NRI, the SDAP header further contains the ARI and the NRI, and if the FII indicates that the ARI and NRI are not included in the SDAP header, the SDAP header does not contain the ARI and the NRI; and sending, by the transmit end device, the processed data flow.
Household appliance with a microwave generator for generating microwaves to be introduced into a cooking chamber of the household appliance, characterized in that the household appliance comprises food dispensing means with an outlet portion, wherein the outlet portion is arranged within the cooking chamber.