mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a User Equipment, UE, (200, 600) of enabling the UE (200, 600) to access a Wireless Local Area Network, WLAN,, the method comprising: • detecting (400, 402) a need for the UE to access the WLAN, wherein detecting (400, 402) the need for the UE to access the WLAN comprises obtaining various communication policies from an Access Network Discovery and Selection Function, ANDSF, server; • creating an Association Reason Code, ARC, based on the detected (400, 402) need, and wherein creating the ARC is also based on said various communication policies, and • sending the created ARC to a WLAN node of the WLAN, connecting the UE (200, 600) to the WLAN in accordance with the created ARC. • detecting (400, 402) a need for the UE to access the WLAN, wherein detecting (400, 402) the need for the UE to access the WLAN comprises obtaining various communication policies from an Access Network Discovery and Selection Function, ANDSF, server; • creating an Association Reason Code, ARC, based on the detected (400, 402) need, and wherein creating the ARC is also based on said various communication policies, and • sending the created ARC to a WLAN node of the WLAN, connecting the UE (200, 600) to the WLAN in accordance with the created ARC.
Mixer valve of an internal combustion engine of a motor vehicle having a flap which is arranged in an intake duct and a flap which is arranged in an exhaust gas duct, having rotatably mounted shafts (11, 12) which hold the flaps (13, 14), the intake duct and the exhaust gas duct opening into a common collector duct, and having a drive device of the flaps (13, 14), the drive device having a single actuating motor and a gear mechanism for actuating the two flaps (13, 14), characterized in that the gear mechanism has a differential gear mechanism, and in that the differential gear mechanism is arranged between the two shafts (11, 12).
Pressing machine for pressing workpieces, having: a. a hydraulic pump for delivering a hydraulic fluid; b. an electric motor for driving the hydraulic pump; c. a working cylinder in hydraulic communication with an output of the hydraulic pump; d. a pressure relief valve in hydraulic communication with the output of the hydraulic pump and opening at a predetermined preset pressure (Pv) of the hydraulic fluid; e. an electronic controller for driving the electric motor; characterised by f. a sensor monitoring the state of the pressure relief valve and outputting a signal describing the state of the pressure relief valve to the electronic controller. a. a hydraulic pump for delivering a hydraulic fluid; b. an electric motor for driving the hydraulic pump; c. a working cylinder in hydraulic communication with an output of the hydraulic pump; d. a pressure relief valve in hydraulic communication with the output of the hydraulic pump and opening at a predetermined preset pressure (Pv) of the hydraulic fluid; e. an electronic controller for driving the electric motor; characterised by f. a sensor monitoring the state of the pressure relief valve and outputting a signal describing the state of the pressure relief valve to the electronic controller.
A method for an SCR system comprising a dosing unit for dosing reducing agent into an engine exhaust duct upstream of an SCR catalytic converter for reducing the NO x level in an exhaust flow from said engine, wherein said SCR-system comprises a pressurizing device for feeding reducing agent from a container to said dosing unit arranged so as to dose said reducing agent to said exhaust duct under pressure, characterized by the steps of: - reducing, during periods of non-continuous dosing of reducing agent during continued maintained operation of said pressurizing device, the pressure (s301; s320) of said reducing agent at the dosing unit compared to the pressure during continued dosing, and either - reducing the pressure of said reducing agent at the dosing unit by reducing the rpm of said pressurizing device; or - reducing the pressure of said reducing agent at the dosing unit by reducing a stroke rate of said pressurizing device. - reducing, during periods of non-continuous dosing of reducing agent during continued maintained operation of said pressurizing device, the pressure (s301; s320) of said reducing agent at the dosing unit compared to the pressure during continued dosing, and either - reducing the pressure of said reducing agent at the dosing unit by reducing the rpm of said pressurizing device; or - reducing the pressure of said reducing agent at the dosing unit by reducing a stroke rate of said pressurizing device.
A process for the preparation of an organic sulfone by oxidation of the respective sulfoxide in the presence of at least one peroxide comprising at least one carboxylic acid which is liquid at 40°C and has a miscibility gap with water at 40°C and atmospheric pressure.
Composition comprising a monoclonal antibody, characterized in that said antibody has on its Fcγ glycosylation site (Asn 297) glycan structures of the bi-antennary type, with short chains, a low degree of sialylation, nonintercalated terminal mannoses and GlcNAcs of the point of attachment, characterized in that it comprises a content greater than 60% for the G0 + G1 + G0F + G1F forms: and wherein the fucose content is less than 30%.
A light emitting device comprising: a body having a cavity; first and second lead frames (21, 31) spaced apart from each other in the cavity; a gap part between the first and second lead frames (21, 31); an adhesive material disposed on a region of a bottom surface of the cavity; a light emitting chip disposed on at least one of the first and second lead frames (21, 31); and a molding member adhering to the adhesive material in the cavity, characterized in that the adhesive material is disposed on a plurality of regions of the bottom surface of the cavity adjacent to a lateral side of the cavity, wherein the adhesive material is extended from at least one of the lateral sides of the cavity and is adhered to a top surface of at least one of the first and second lead frames (21, 31), wherein a portion of the adhesive material has a surface roughness in a range of 0.116 μm to 0.290 μm, wherein the adhesive material has irregularly shaped portions spaced apart from each other, wherein a thickness of the adhesive material is thinner than that of the light emitting chip and is 5 μm or less, wherein the first and second lead frames (21, 31) comprise a groove (22, 32) located closer to the lateral side of the cavity as compared with the light emitting chip, and the adhesive material is disposed between the lateral side of the cavity and the groove (22, 32), wherein the groove (22, 32) is spaced apart from the lateral side of the cavity. a body having a cavity; first and second lead frames (21, 31) spaced apart from each other in the cavity; a gap part between the first and second lead frames (21, 31); an adhesive material disposed on a region of a bottom surface of the cavity; a light emitting chip disposed on at least one of the first and second lead frames (21, 31); and a molding member adhering to the adhesive material in the cavity, characterized in that the adhesive material is disposed on a plurality of regions of the bottom surface of the cavity adjacent to a lateral side of the cavity, wherein the adhesive material is extended from at least one of the lateral sides of the cavity and is adhered to a top surface of at least one of the first and second lead frames (21, 31), wherein a portion of the adhesive material has a surface roughness in a range of 0.116 μm to 0.290 μm, wherein the adhesive material has irregularly shaped portions spaced apart from each other, wherein a thickness of the adhesive material is thinner than that of the light emitting chip and is 5 μm or less, wherein the first and second lead frames (21, 31) comprise a groove (22, 32) located closer to the lateral side of the cavity as compared with the light emitting chip, and the adhesive material is disposed between the lateral side of the cavity and the groove (22, 32), wherein the groove (22, 32) is spaced apart from the lateral side of the cavity.
A method, performed by a server, of executing a virtualized network function in a wireless communication system, the method comprising: obtaining traffic processing information and mobile edge computing, MEC, service usage information regarding a plurality of user equipments, UEs, that have accessed to the server via a plurality of base stations (12, 14, 16), wherein the traffic processing information includes traffic information indicating an amount of traffic occurred on a virtualized radio access network, vRAN, function and resource information indicating physical resources including hardware components used for processing the traffic; identifying an amount of MEC service usage based on the traffic processing information and the MEC service usage information; predicting, an amount of traffic to occur and an amount of MEC service usage to occur based on the amount of the traffic occurred on the vRAN function and the amount of the MEC service usage; and determining, based on the predicted amount of the traffic to occur and the predicted amount of the MEC service usage, a type of the physical resources on which each of software component for the vRAN function and MEC function in the server is to be executed. obtaining traffic processing information and mobile edge computing, MEC, service usage information regarding a plurality of user equipments, UEs, that have accessed to the server via a plurality of base stations (12, 14, 16), wherein the traffic processing information includes traffic information indicating an amount of traffic occurred on a virtualized radio access network, vRAN, function and resource information indicating physical resources including hardware components used for processing the traffic; identifying an amount of MEC service usage based on the traffic processing information and the MEC service usage information; predicting, an amount of traffic to occur and an amount of MEC service usage to occur based on the amount of the traffic occurred on the vRAN function and the amount of the MEC service usage; and determining, based on the predicted amount of the traffic to occur and the predicted amount of the MEC service usage, a type of the physical resources on which each of software component for the vRAN function and MEC function in the server is to be executed.
A method performed by a wireless device (300, 610) for reconfiguring semi-persistent scheduling, the wireless device being configured with a first semi-persistent scheduling configuration for uplink or downlink transmissions, the method comprising: - while semi-persistent scheduling is active according to the first semi-persistent scheduling configuration such that the wireless device is configured with periodic transmission or reception opportunities, receiving a semi-persistent scheduling reconfiguration message from a network node (500, 660), the semi-persistent scheduling reconfiguration message comprising an indication of a semi-persistent scheduling activation time and an instruction to reconfigure the wireless device to a second semi-persistent scheduling configuration for uplink or downlink transmissions; and - determining one or more transmission or reception opportunities associated with the second semi-persistent scheduling configuration based on the semi-persistent scheduling activation time according to the second semi-persistent scheduling configuration. - while semi-persistent scheduling is active according to the first semi-persistent scheduling configuration such that the wireless device is configured with periodic transmission or reception opportunities, receiving a semi-persistent scheduling reconfiguration message from a network node (500, 660), the semi-persistent scheduling reconfiguration message comprising an indication of a semi-persistent scheduling activation time and an instruction to reconfigure the wireless device to a second semi-persistent scheduling configuration for uplink or downlink transmissions; and - determining one or more transmission or reception opportunities associated with the second semi-persistent scheduling configuration based on the semi-persistent scheduling activation time according to the second semi-persistent scheduling configuration.
A centralizer sub (60,80) for cementing a tubular string in a wellbore, comprising: a tubular body; a centralizer (62,82) disposed along an outer surface of the body and having a pair of collars (65,85) and a plurality of bow springs (66a-h) connecting the collars; and one or two joints (63,83) longitudinally linking the centralizer to the body, the centralizer sub characterised by each joint having: a groove (67u,67b) formed in and around the body outer surface, and a plurality of protrusions (68,88) mounted to one of the collars and extending into the groove, characterized in that the protrusions are lugs received in openings formed through the one collar. a tubular body; a centralizer (62,82) disposed along an outer surface of the body and having a pair of collars (65,85) and a plurality of bow springs (66a-h) connecting the collars; and one or two joints (63,83) longitudinally linking the centralizer to the body, the centralizer sub characterised by each joint having: a groove (67u,67b) formed in and around the body outer surface, and a plurality of protrusions (68,88) mounted to one of the collars and extending into the groove, characterized in that the protrusions are lugs received in openings formed through the one collar. a groove (67u,67b) formed in and around the body outer surface, and a plurality of protrusions (68,88) mounted to one of the collars and extending into the groove, characterized in that the protrusions are lugs received in openings formed through the one collar.
A control method for an internal combustion engine which includes a variable compression ratio mechanism which is arranged to vary a compression ratio, and in which a target compression ratio is varied at the variation of the compression ratio so that an actual compression ratio cannot follow the target compression ratio, the control method comprising: controlling the compression ratio by using a control target compression ratio whose a variation amount per unit time is limited to be equal to or smaller than a predetermined variation amount threshold value, and which is varied so that a difference between the control target compression ratio and the actual compression ratio is smaller than a difference between the target compression ratio and the actual compression ratio, in place of the target compression ratio; and setting a first variation amount threshold value which is the variation amount threshold value of the control target compression ratio toward a high compression ratio side, to be smaller than a second variation amount threshold value which is the variation amount threshold value of the control target compression ratio toward a low compression ratio side. controlling the compression ratio by using a control target compression ratio whose a variation amount per unit time is limited to be equal to or smaller than a predetermined variation amount threshold value, and which is varied so that a difference between the control target compression ratio and the actual compression ratio is smaller than a difference between the target compression ratio and the actual compression ratio, in place of the target compression ratio; and setting a first variation amount threshold value which is the variation amount threshold value of the control target compression ratio toward a high compression ratio side, to be smaller than a second variation amount threshold value which is the variation amount threshold value of the control target compression ratio toward a low compression ratio side.
Method for inserting a drilling channel in the soil by means of a ground drilling device, wherein the ground drilling device has a drilling head that is moved to insert the drilling channel in the soil and the method comprises the steps: a) detecting obstacles in front of and/or next to the drilling head; b) displaying the position of a detected obstacle relative to the drilling head; c) issuing a shutdown warning if the distance between the detected obstacle and the drilling head is less than a first, in particular selectable, distance; d) stopping the insertion of the drilling channel when a shutdown warning is issued; e) checking a safety query in the form of an acknowledgement of the issued shutdown warning; and f) resuming the insertion of the drilling channel upon a successful checking of the acknowledgement. a) detecting obstacles in front of and/or next to the drilling head; b) displaying the position of a detected obstacle relative to the drilling head; c) issuing a shutdown warning if the distance between the detected obstacle and the drilling head is less than a first, in particular selectable, distance; d) stopping the insertion of the drilling channel when a shutdown warning is issued; e) checking a safety query in the form of an acknowledgement of the issued shutdown warning; and f) resuming the insertion of the drilling channel upon a successful checking of the acknowledgement.
A method of preparing a material based on silicon and/or germanium nanowires, comprising the steps of: i) contacting a silicon source and/or a germanium source with a catalyst, in the form of nanoparticles, comprising a binary metal sulphide, said metal being selected from Sn, In, Bi, Sb and Ga, whereby silicon and/or germanium nanowires are obtained, ii) optionally recovering the silicon and/or germanium nanowires obtained in step (i); the catalyst, and optionally the silicon source and/or the germanium source, being heated before, during and/or after contact under temperature and pressure conditions that allow the silicon and/or germanium nanowires to grow, the heating being carried out at a temperature of between 200°C and 500°C, for example under atmospheric pressure. i) contacting a silicon source and/or a germanium source with a catalyst, in the form of nanoparticles, comprising a binary metal sulphide, said metal being selected from Sn, In, Bi, Sb and Ga, whereby silicon and/or germanium nanowires are obtained, ii) optionally recovering the silicon and/or germanium nanowires obtained in step (i);
An improved prefiltering method, in particular for prefiltering organic liquid products in the food processing sector, of the type comprising a filtering module, in which the product to be treated is radially pushed outwards against the perforated walls of a filtering element, so as to separate the filtrate, which is thus collected and extracted through at least one outlet, from the retentate, which is then reintroduced into the filtering module itself by means of a recirculation circuit, characterized in that: - the speed/flow rate of the product to be treated is detected by means of a speed/flow rate sensor positioned in the recirculation circuit, in which a centrifugal pump for recirculating said product to be treated is also provided, said speed/flow rate sensor being positioned in said recirculation circuit in a position downstream of said centrifugal pump, - the speed/flow rate detected by means of said sensor is compared at predetermined frequency with a predetermined value and, when said predetermined value is reached, said centrifugal pump is deactivated and the opening of a discharge valve is controlled to make the solid fraction of the product to be treated, which accumulated in said filtering element during the prefiltering treatment, exit from said filtering element; wherein a control unit is configured to compare said detected speed/flow rate value with the predetermined value and to correspondingly control, on the basis of said comparison, the opening of the discharge valve. - the speed/flow rate of the product to be treated is detected by means of a speed/flow rate sensor positioned in the recirculation circuit, in which a centrifugal pump for recirculating said product to be treated is also provided, said speed/flow rate sensor being positioned in said recirculation circuit in a position downstream of said centrifugal pump, - the speed/flow rate detected by means of said sensor is compared at predetermined frequency with a predetermined value and, when said predetermined value is reached, said centrifugal pump is deactivated and the opening of a discharge valve is controlled to make the solid fraction of the product to be treated, which accumulated in said filtering element during the prefiltering treatment, exit from said filtering element;
A fuel injector system for injecting fuel into a turbomachine combustion chamber, the system comprising: first and second fuel injectors, the first injector being positioned at the center of the injector system so as to inject a first fuel spray, and the second injector surrounding the first injector so as to inject a second fuel spray of generally annular shape around the first fuel spray; and first and second air admission passages (24, 30) associated respectively with the first and second injectors (22, 28) in such a manner as to form respective first and second air/fuel mixtures, characterized in that it further comprises an air admission duct with outlet orifices opening out between the first and second injectors in such a manner as to create a separator air film between the respective combustion zones of the first and second air/fuel mixtures. first and second fuel injectors, the first injector being positioned at the center of the injector system so as to inject a first fuel spray, and the second injector surrounding the first injector so as to inject a second fuel spray of generally annular shape around the first fuel spray; and first and second air admission passages (24, 30) associated respectively with the first and second injectors (22, 28) in such a manner as to form respective first and second air/fuel mixtures, characterized in that it further comprises an air admission duct with outlet orifices opening out between the first and second injectors in such a manner as to create a separator air film between the respective combustion zones of the first and second air/fuel mixtures.
A cabinet server, wherein the cabinet server comprises at least two function nodes, multiple intra-cabinet antennas, and multiple inter-cabinet antennas, wherein the function nodes are vertically arranged, to form a server core, wherein the server core comprises multiple function node layers, and each function node layer comprises at least one function node; the intra-cabinet antennas are vertically arranged and are disposed at a side of the server core, an intra-cabinet antenna corresponding to each function node has a frequency needed by the corresponding function node, the intra-cabinet antenna and the corresponding function node are electrically connected, and adjacent intra-cabinet antennas are wirelessly connected; and when a radio signal is transmitted within the cabinet server, each intra-cabinet antenna is configured to transmit, after receiving the radio signal, the radio signal to a vertically adjacent intra-cabinet antenna, until the radio signal is transmitted to a target intra-cabinet antenna of the multiple intra-cabinet antennas, and the target intra-cabinet antenna transmits the radio signal to a function node that is electrically connected to the target intra-cabinet antenna, so that the function node analyzes and processes the radio signal, and wherein a hollow cavity is formed between adjacent function nodes, and the radio signal is transmitted in a form of a wide lobe.