mhurhangee/patent-ind-claim-en huggingface dataset:
Dispensing needle , - having a first attachment portion and a capillary portion connected to the first attachment portion , - wherein a channel extends through the first attachment portion towards a tip of the capillary portion , - wherein the channel is designed to guide a viscous dispensing material , - wherein the first attachment portion has a first material and the capillary portion has a second material, - wherein the capillary portion has an anti-adhesion layer on at least sections of an outer circumferential surface, - wherein the anti-adhesion layer is arranged adjoining the tip of the capillary portion , - wherein the anti-adhesion layer is designed to reduce adhesion of the dispensing material to the circumferential surface, - wherein the capillary portion is connected to the first attachment portion by means of a connection , - characterized in that - the first material and the second material have glass and/or ceramic, - wherein the connection is designed such that the capillary portion is cemented and/or adhesively bonded in sections into the first attachment portion , - wherein the connection has a connection material that connects the capillary portion to the first attachment portion , - wherein the connection material is more temperature-stable than a material of the anti-adhesion layer . - having a first attachment portion and a capillary portion connected to the first attachment portion , - wherein a channel extends through the first attachment portion towards a tip of the capillary portion , - wherein the channel is designed to guide a viscous dispensing material , - wherein the first attachment portion has a first material and the capillary portion has a second material, - wherein the capillary portion has an anti-adhesion layer on at least sections of an outer circumferential surface, - wherein the anti-adhesion layer is arranged adjoining the tip of the capillary portion , - wherein the anti-adhesion layer is designed to reduce adhesion of the dispensing material to the circumferential surface, - wherein the capillary portion is connected to the first attachment portion by means of a connection , - characterized in that - the first material and the second material have glass and/or ceramic, - wherein the connection is designed such that the capillary portion is cemented and/or adhesively bonded in sections into the first attachment portion , - wherein the connection has a connection material that connects the capillary portion to the first attachment portion , - wherein the connection material is more temperature-stable than a material of the anti-adhesion layer .
A self-propelled sweeper for cleaning drivable and/or walkable, preferably solid ground surfaces , such as traffic areas, roads, airports and industrial facilities, which sweeper consists of a chassis that is provided with a motor-driven drive axle and at least one drive axle which includes wheels (16 to 19) which can be steered in order to influence the direction of travel, which drive axles form a front axle and a rear axle and are aligned transverse to the direction of travel (F) of the sweeper , and spaced one behind the other and that is provided with an emptiable collection hopper which is arranged on the chassis and is arranged for collecting sweeping debris through a suction aggregate which includes a suction blower and is arranged on the chassis , which suction aggregate is connected through a line to a suction device arranged at the front end of a suction air line , said suction device provided with a suction mouth being attached to said chassis , projecting downwards, at a distance above the ground surface , between two wheels of the front axle having an independent wheel suspension or a rigid axle, and which sweeper also consists of a driver's cabin , arranged on the chassis above the front axle , and a sweeping device arranged below said cabin, in front of the front axle , which is used to gather the sweepings to be collected, characterised in that the suction device floatingly arranged near the ground is connected, so as to be raised and lowered, to wheel carriers forming the wheel suspension of the front axle and pivotably mounted to the chassis around approximately horizontal axes and in that said suction device is guided so as to be displaced in approximately one plane by a suspension arm so that it can be suspended in a contactless manner relative to the ground surface to be cleaned to adapt its working position to the ground along which it travels.
Method for producing a rolled edge from a cylindrical edge section of a tube, in which method, in a first step, an initial zone of the edge section is folded over by a positively controlled tool and, in a second step, a flanging punch subsequently moves into the folded-over edge section and flanges the latter to form a roll , wherein in the first step the initial zone of the edge portion is folded over by the tool comprising a folding over punch and counterholder by an angle (α) in the range of 75-105° from the axial direction to a substantially radial circumferential flange characterised in that the method of producing a rolled edge from a cylindrical edge portion is in the form of a two-step method and comprises only said first and second steps to provide the final rolled edge for use from the cylindrical edge portion of the tube.
A network device, comprising a buffer module , a counting module , a control module , and a sending module , wherein the buffer module comprises N queues, configured to buffer M data streams, wherein N is less than M; the counting module comprises M counters, the M counters are in a one-to-one correspondence with the M data streams, and the M counters are configured to count buffer quantities for the M data streams in the N queues; and the control module is configured to: when a count value on a first counter exceeds a corresponding threshold, control the sending module to send pause indication information to an upper-level control module , wherein the pause indication information is used to instruct the upper-level control module to pause data packet sending, wherein the first counter is any one of the M counters. the buffer module comprises N queues, configured to buffer M data streams, wherein N is less than M; the counting module comprises M counters, the M counters are in a one-to-one correspondence with the M data streams, and the M counters are configured to count buffer quantities for the M data streams in the N queues; and the control module is configured to: when a count value on a first counter exceeds a corresponding threshold, control the sending module to send pause indication information to an upper-level control module , wherein the pause indication information is used to instruct the upper-level control module to pause data packet sending, wherein the first counter is any one of the M counters.
A method in a wireless LAN, WLAN, system, the method comprising: generating (S1110), by a first station, STA, supporting a plurality of space time streams, STSs, a first pilot sequence related with 56 subcarriers for three bonded channels based on a second pilot sequence related with 16 subcarriers and a third pilot sequence related with 12 subcarriers, wherein the second pilot sequence is set to one sequence among a plurality of second pilot sequences for the plurality of STSs, wherein the third pilot sequence is set to one sequence among a plurality of third pilot sequences for the plurality of STSs, wherein the plurality of the second pilot sequences for the plurality of STSs are mutually orthogonal, and wherein the plurality of the third pilot sequences for the plurality of STSs are mutually orthogonal, wherein a maximum number of the STSs supported by the first STA is eight, wherein the first pilot sequence is generated for each of the STSs; and transmitting (S1120), by the first STA to a second STA, a signal including the first pilot sequence for each of the STSs through the three bonded channels. generating (S1110), by a first station, STA, supporting a plurality of space time streams, STSs, a first pilot sequence related with 56 subcarriers for three bonded channels based on a second pilot sequence related with 16 subcarriers and a third pilot sequence related with 12 subcarriers, wherein the second pilot sequence is set to one sequence among a plurality of second pilot sequences for the plurality of STSs, wherein the third pilot sequence is set to one sequence among a plurality of third pilot sequences for the plurality of STSs, wherein the plurality of the second pilot sequences for the plurality of STSs are mutually orthogonal, and wherein the plurality of the third pilot sequences for the plurality of STSs are mutually orthogonal, wherein a maximum number of the STSs supported by the first STA is eight, wherein the first pilot sequence is generated for each of the STSs; and transmitting (S1120), by the first STA to a second STA, a signal including the first pilot sequence for each of the STSs through the three bonded channels.
A rolling bearing of a wind energy installation , wherein the wind energy installation comprises a rotor shaft which is supported via the rolling bearing and which is driven by a wind rotor , wherein the rolling bearing comprises a rotor which is connected to the rotor shaft of the wind energy installation, wherein the rolling bearing comprises a stator , wherein a device for introducing lubricating grease is accommodated in the stator , wherein the rolling bearing further comprises a plurality of rolling bodies which are arranged between the stator and the rotor , wherein the device for introducing lubricating grease has an outlet opening for lubricating grease which is oriented against a raceway of the stator or of the rotor or a running surface of at least one of the rolling bodies .
A reduced-emission industrial burner , installable in a combustion chamber ; the burner comprising at least: one first tubular discharge element , inside which there are at least one first feeding duct to feed a primary fuel flow (PF) configured to develop a flame root (FR); at least one second feeding duct to feed a secondary fuel flow (SF) configured to develop a main flame (MF); at least one third feeding duct to feed an oxidizer (OX); the first tubular discharge element being configured to be flown through by the oxidizer (OX) and being provided with a first end , which is configured to be installed on the outside of the combustion chamber , and with a second end , which is opposite the first end and is configured to be installed inside the combustion chamber ; the burner further comprising a second tubular discharge element extending from the second end , on the opposite side relative to the first end ; and a suction element , which is configured to cause at least part of the gases (G) present on the outside of the burner to flow into the second tubular discharge element and comprises at least one opening , which is arranged between the first and the second tubular discharge element and sucks the gases (G) present on the outside of the burner due to a depression generated in the area of the suction element; characterised in that the burner further comprises a partition element for the oxidizer (OX), which is configured to divide the oxidizer (OX) into a primary portion (OX') to be mixed with said primary flow (PF) and a secondary portion (OX") to be mixed with said secondary flow (SF). the burner comprising at least: one first tubular discharge element , inside which there are at least one first feeding duct to feed a primary fuel flow (PF) configured to develop a flame root (FR); at least one second feeding duct to feed a secondary fuel flow (SF) configured to develop a main flame (MF); at least one third feeding duct to feed an oxidizer (OX); the first tubular discharge element being configured to be flown through by the oxidizer (OX) and being provided with a first end , which is configured to be installed on the outside of the combustion chamber , and with a second end , which is opposite the first end and is configured to be installed inside the combustion chamber ; the burner further comprising a second tubular discharge element extending from the second end , on the opposite side relative to the first end ; and a suction element , which is configured to cause at least part of the gases (G) present on the outside of the burner to flow into the second tubular discharge element and comprises at least one opening , which is arranged between the first and the second tubular discharge element and sucks the gases (G) present on the outside of the burner due to a depression generated in the area of the suction element; characterised in that the burner further comprises a partition element for the oxidizer (OX), which is configured to divide the oxidizer (OX) into a primary portion (OX') to be mixed with said primary flow (PF) and a secondary portion (OX") to be mixed with said secondary flow (SF).
A housing to be mounted, in a mounting position, on a body of an electronic device, said housing comprising at least one panel intended to cover, in said mounting position, at least one portion, intended to be illuminated, of a display screen of said electronic device, said housing being characterised in that said at least one panel is moulded from a first mixture of at least one base material and at least one opacifying material, said at least one panel meeting at least one first transparency criterion, and being adapted to conceal said at least one screen portion in said mounting position, in the absence of lighting from said screen, and to leave, in said mounting position, said at least one screen portion visible, through said at least one panel , when said at least one screen portion is illuminated.
A method comprising: receiving a set of content for display on a device in a locked-screen mode of the device , wherein at least a portion of the received set of content is marked for redaction; displaying the set of content with the marked portion redacted on the device in the locked-screen mode; receiving biometric verification data indicating whether a user of the device is verified through biometric data; and when the biometric verification data indicates that the user is verified, displaying the set of content without any portion redacted while the device remains in the locked-screen mode. receiving a set of content for display on a device in a locked-screen mode of the device , wherein at least a portion of the received set of content is marked for redaction; displaying the set of content with the marked portion redacted on the device in the locked-screen mode; receiving biometric verification data indicating whether a user of the device is verified through biometric data; and when the biometric verification data indicates that the user is verified, displaying the set of content without any portion redacted while the device remains in the locked-screen mode.
Method for controlling routing of user plane traffic by modifying parameters of a session description protocol, comprising - receiving by a first session border controller a request for a session from a user equipment, the request comprising a first codec list in a first encoding, wherein the user equipment is located upstream from the first session border controller and the first session border controller is located upstream from a subsequent session border controller, characterized in that the method comprises: - deciding if a user plane gateway is to be added to a user plane path based on information in the received request; - including by the first session border controller, in the request for the session, the first codec list in a second encoding, - including by the first session border controller, in the request for the session, address information of the user plane gateway added to the user plane session and a second codec list in the first encoding to add the gateway, wherein the second codec list is formed based on the first codec list with one or more codecs that the user plane gateway supports added; and - transmitting , by the first session border controller, the request for the session to the subsequent session border controller, wherein the first encoding comprises encoding as m-line of the session description protocol and/or wherein the second encoding is associated with a second attribute which is indicating address information of the user plane gateway or address information of a control entity controlling the user plane gateway. - receiving by a first session border controller a request for a session from a user equipment, the request comprising a first codec list in a first encoding, wherein the user equipment is located upstream from the first session border controller and the first session border controller is located upstream from a subsequent session border controller, characterized in that the method comprises: - deciding if a user plane gateway is to be added to a user plane path based on information in the received request; - including by the first session border controller, in the request for the session, the first codec list in a second encoding, - including by the first session border controller, in the request for the session, address information of the user plane gateway added to the user plane session and a second codec list in the first encoding to add the gateway, wherein the second codec list is formed based on the first codec list with one or more codecs that the user plane gateway supports added; and - transmitting , by the first session border controller, the request for the session to the subsequent session border controller,
A sound transducer arrangement for generating and/or detecting sound waves in the audible wavelength spectrum, comprising an acoustic unit , which includes a vibratable diaphragm , comprising a MEMS unit , which includes a MEMS structure , coupled to the diaphragm , for generating and/or detecting a deflection of the diaphragm , comprising a coupling element for coupling the MEMS structure to the diaphragm , whereby deflections of the MEMS structure are transmitted to the diaphragm and/or deflections of the diaphragm are transmitted to the MEMS structure , and comprising a support unit on which the acoustic unit is arranged wherein the support unit comprises a metallic lead frame and a plastic body , with which the lead frame is partially circumferentially fused, wherein the support unit comprises a breakthrough , which is at least partially bordered by a support area for accommodating the MEMS unit characterized in that the MEMS unit is arranged on the support unit , that the MEMS unit is mounted on the support area and the MEMS structure of the MEMS unit can deflect not only away from the support unit , but also into the breakthrough towards the support unit . comprising an acoustic unit , which includes a vibratable diaphragm , comprising a MEMS unit , which includes a MEMS structure , coupled to the diaphragm , for generating and/or detecting a deflection of the diaphragm , comprising a coupling element for coupling the MEMS structure to the diaphragm , whereby deflections of the MEMS structure are transmitted to the diaphragm and/or deflections of the diaphragm are transmitted to the MEMS structure , and comprising a support unit on which the acoustic unit is arranged wherein the support unit comprises a metallic lead frame and a plastic body , with which the lead frame is partially circumferentially fused, wherein the support unit comprises a breakthrough , which is at least partially bordered by a support area for accommodating the MEMS unit characterized in that the MEMS unit is arranged on the support unit , that the MEMS unit is mounted on the support area and the MEMS structure of the MEMS unit can deflect not only away from the support unit , but also into the breakthrough towards the support unit .
A method for predicting graft alterations in a kidney transplanted patient, comprising a step of determining the expression levels of bactericidal/permeability-increasing protein ( BPI ), chemokine (C motif) ligand 1 ( XCL1 ) and thioredoxin domain containing 3 (TXNDC3) genes in a biological sample obtained from said kidney transplanted patient.
A reconfiguration method, comprising: receiving (S301), by a user equipment, a reconfiguration instruction from a network device, wherein the reconfiguration instruction is used to instruct reconfiguration of a Packet data convergence protocol, PDCP, layer; reconfiguring (S302) the PDCP layer and transmitting (S303) an end-marker, EM, by the user equipment; when the EM is defined only in a new radio, NR, PDCP protocol and reconfiguration of the PDCP layer of the user equipment is to switch from a long term evolution, LTE, PDCP to an NR PDCP, before the user equipment transmits the EM, the method further comprises: performing, by the user equipment, resetting processing, wherein the resetting processing comprises at least one of: resetting a robust header compression, ROHC, resetting a protocol data unit, PDU, sequence number, SN, and resetting a hyper frame number, HFN; and when the EM is defined only in an NR PDCP protocol and reconfiguration of the PDCP layer of the user equipment is to switch from an NR PDCP to an LTE PDCP, or when the EM is defined in both the NR PDCP protocol and a LTE PDCP protocol, after the user equipment transmits the EM, the method further comprises: performing, by the user equipment, resetting processing, wherein the resetting processing comprises at least one of: resetting a ROHC, resetting a PDU SN, and resetting a HFN. receiving (S301), by a user equipment, a reconfiguration instruction from a network device, wherein the reconfiguration instruction is used to instruct reconfiguration of a Packet data convergence protocol, PDCP, layer; reconfiguring (S302) the PDCP layer and transmitting (S303) an end-marker, EM, by the user equipment; when the EM is defined only in a new radio, NR, PDCP protocol and reconfiguration of the PDCP layer of the user equipment is to switch from a long term evolution, LTE, PDCP to an NR PDCP, before the user equipment transmits the EM, the method further comprises: performing, by the user equipment, resetting processing, wherein the resetting processing comprises at least one of: resetting a robust header compression, ROHC, resetting a protocol data unit, PDU, sequence number, SN, and resetting a hyper frame number, HFN; and when the EM is defined only in an NR PDCP protocol and reconfiguration of the PDCP layer of the user equipment is to switch from an NR PDCP to an LTE PDCP, or when the EM is defined in both the NR PDCP protocol and a LTE PDCP protocol, after the user equipment transmits the EM, the method further comprises: performing, by the user equipment, resetting processing, wherein the resetting processing comprises at least one of: resetting a ROHC, resetting a PDU SN, and resetting a HFN.
A steel sheet for a tool consisting of 0.4 to 0.6 wt% of C, 0.05 to 0.5 wt% of Si, 0.1 to 1.5 wt% of Mn, 0.05 to 0.5 wt% of V, 0.05 to 1.0 wt% of Ni, 0.5 to 2.0 wt% of Cr, 0.5 to 2.0 wt% of Mo, and the balance of Fe and inevitable impurities, with respect to 100 wt% of the total steel sheet, wherein the Rockwell hardness of the steel sheet is 36 to 41HRC, wherein the deviation of Rockwell hardness by the position in the width direction of the steel sheet for a tool is within 5 HRC, wherein the ratio of those having a wave height in the longitudinal direction within 20 cm is 90 % or more with respect to the wave height per 1 m of the steel sheet comprising the central portion in the longitudinal direction of the steel sheet for a tool, wherein the central portion means a portion comprising ±25% of a total length of the steel sheet on the basis of the center point.