mhurhangee/ep-ind-claims huggingface dataset:
A mobile station device, comprising: a receiver configured to receive, from a base station, a control signal indicating that a transmission power of the mobile station device is to be increased or decreased; a transmitter configured to transmit, to the base station, a request signal to request a non-data-transmission period in which the mobile station does not transmit data to the base station, the request signal including a selected length of the non-data-transmission period; and a controller, wherein the transmitter is configured to transmit the request signal when the transmission power has been less than a threshold value and when the control signal has been received, wherein the receiver is configured to receive, from the base station, a response to the request signal, the response including an instruction regarding the selected length of the non-data-transmission, and wherein the controller is configured to set the non-data-transmission duration in accordance with the response. a receiver configured to receive, from a base station, a control signal indicating that a transmission power of the mobile station device is to be increased or decreased; a transmitter configured to transmit, to the base station, a request signal to request a non-data-transmission period in which the mobile station does not transmit data to the base station, the request signal including a selected length of the non-data-transmission period; and a controller, wherein the transmitter is configured to transmit the request signal when the transmission power has been less than a threshold value and when the control signal has been received, wherein the receiver is configured to receive, from the base station, a response to the request signal, the response including an instruction regarding the selected length of the non-data-transmission, and wherein the controller is configured to set the non-data-transmission duration in accordance with the response.
A plate type heat exchanger, comprising: a plurality of plates disposed so that first flow paths and second flow paths, through which different heat media are heat exchanged and flow, respectively, are repeatedly formed; a reinforcing part provided between the plates, and configured to support the plates so that the plates are disposed to be spaced apart from each other; and cut plates provided between the plates and the reinforcing part, and having cut parts, forming irregular flow paths between the plates and generating a vortex while the heat media flow in the flow paths formed between the plates, characterized in that the cut plate has a form, in which regions of the cut plate only adjacent to an inlet and an outlet through which the heat media are supplied to and discharged from the first flow path and the second flow path, are cut. a plurality of plates disposed so that first flow paths and second flow paths, through which different heat media are heat exchanged and flow, respectively, are repeatedly formed; a reinforcing part provided between the plates, and configured to support the plates so that the plates are disposed to be spaced apart from each other; and cut plates provided between the plates and the reinforcing part, and having cut parts, forming irregular flow paths between the plates and generating a vortex while the heat media flow in the flow paths formed between the plates, characterized in that the cut plate has a form, in which regions of the cut plate only adjacent to an inlet and an outlet through which the heat media are supplied to and discharged from the first flow path and the second flow path, are cut.
A frequency band control method in a dual-card user scenario of a dual-card terminal, performed by a terminal device, wherein the terminal device supports a 5G standalone SA mode and/or a non-standalone NSA mode, and the method comprises: when an operating frequency band of a first subscriber identity module card and an operating frequency band of a second subscriber identity module card in the terminal device belong to a frequency band combination in a preset blacklist, and signal quality of the first subscriber identity module card or the second subscriber identity module card does not meet a preset signal quality condition, forbidding the terminal device from working on a 5G new radio NR frequency band, wherein the forbidding the terminal device from working on a 5G NR frequency band comprises: disabling a 5G SA capability of the terminal device, and registering the terminal device with a first network if the terminal device is in the 5G SA mode, wherein the first network is a 4G, 3G, or 2G network; or releasing an NR link in a dual-connectivity ENDC link of the terminal device if the terminal device is in the 5G NSA mode. when an operating frequency band of a first subscriber identity module card and an operating frequency band of a second subscriber identity module card in the terminal device belong to a frequency band combination in a preset blacklist, and signal quality of the first subscriber identity module card or the second subscriber identity module card does not meet a preset signal quality condition, forbidding the terminal device from working on a 5G new radio NR frequency band, wherein the forbidding the terminal device from working on a 5G NR frequency band comprises: disabling a 5G SA capability of the terminal device, and registering the terminal device with a first network if the terminal device is in the 5G SA mode, wherein the first network is a 4G, 3G, or 2G network; or releasing an NR link in a dual-connectivity ENDC link of the terminal device if the terminal device is in the 5G NSA mode. disabling a 5G SA capability of the terminal device, and registering the terminal device with a first network if the terminal device is in the 5G SA mode, wherein the first network is a 4G, 3G, or 2G network; or releasing an NR link in a dual-connectivity ENDC link of the terminal device if the terminal device is in the 5G NSA mode.
A high-strength steel sheet having excellent resistance to brittle crack initiation comprising: 0.02 wt% to 0.06 wt% of C (carbon); 0.1 wt% or less of Si (silicon); 1.5 wt% to 2.0 wt% of Mn (manganese); 0.012 wt% or less of P (phosphorous); 0.003 wt% or less of S (sulfur); 0.5 wt% to 1.5 wt% of Ni (nickel); 0.003 wt% to 0.015 wt% of Al (aluminum); 0.005 wt% to 0.02 wt% of Ti (titanium); 0.005 wt% to 0.015 wt% of Nb (niobium); 0.002 wt% to 0.006 wt% of N (nitrogen); and optionally 0.35% or less of Cu (copper); and Fe (iron) as well as unavoidable impurities as a remainder, wherein a value of C+0.5Si-0.1Ni+6Al+3Nb is 0.1 wt% or less. 0.02 wt% to 0.06 wt% of C (carbon); 0.1 wt% or less of Si (silicon); 1.5 wt% to 2.0 wt% of Mn (manganese); 0.012 wt% or less of P (phosphorous); 0.003 wt% or less of S (sulfur); 0.5 wt% to 1.5 wt% of Ni (nickel); 0.003 wt% to 0.015 wt% of Al (aluminum); 0.005 wt% to 0.02 wt% of Ti (titanium); 0.005 wt% to 0.015 wt% of Nb (niobium); 0.002 wt% to 0.006 wt% of N (nitrogen);
A method of inducing pluripotency in a hematopoietic cell, the method comprising: providing a blood sample, wherein the volume of the blood sample is from 10 μl to 250 μl of blood collected from a subject in the absence of any polysaccharide preparation used for separating blood components, such that no polysaccharide preparation is present in the collection vessel; depleting the sample of red blood cells by treating the sample with a hypotonic erythrocyte lysis buffer, for example comprising ammonium chloride, in the absence of any polysaccharide preparation used for separating blood components, to obtain a remaining cell population, such that no polysaccharide preparation is subsequently added to the blood sample to assist with subsequent separation or isolation of blood components, and that the blood sample remains free of any polysaccharide preparation from the time of collection until the remaining cell population is obtained; expanding the remaining cell population in the sample in an optionally serum-free hematopoietic expansion medium to obtain an expanded cell population that contains 50 % or greater CD71+ cells; and culturing the expanded cell population in the presence of Oct4, Sox2, and Klf4, and optionally c-MYC, in human embryonic stem cell medium to induce pluripotency. providing a blood sample, wherein the volume of the blood sample is from 10 μl to 250 μl of blood collected from a subject in the absence of any polysaccharide preparation used for separating blood components, such that no polysaccharide preparation is present in the collection vessel; depleting the sample of red blood cells by treating the sample with a hypotonic erythrocyte lysis buffer, for example comprising ammonium chloride, in the absence of any polysaccharide preparation used for separating blood components, to obtain a remaining cell population, such that no polysaccharide preparation is subsequently added to the blood sample to assist with subsequent separation or isolation of blood components, and that the blood sample remains free of any polysaccharide preparation from the time of collection until the remaining cell population is obtained; expanding the remaining cell population in the sample in an optionally serum-free hematopoietic expansion medium to obtain an expanded cell population that contains 50 % or greater CD71+ cells; and culturing the expanded cell population in the presence of Oct4, Sox2, and Klf4, and optionally c-MYC, in human embryonic stem cell medium to induce pluripotency.
A distributed antenna system DAS, comprising: a plurality of head-end units (100A, 100B, 100C) configured to receive mobile communication signals from different base stations, wherein each of the mobile communication signals includes a plurality of sub-band signals respectively corresponding to a plurality of mobile communication service bands; a hub unit (30, 200) connected to each of the plurality of head-end units HEU (100A, 100B, 100C) through a transport medium, the hub unit (30, 200) distributing mobile communication signals respectively received from the plurality of head-end units (100A, 100B, 100C) to a plurality of remote units branch-connected thereto through a transport medium; and the plurality of remote units remotely disposed to transmit the mobile communication signals to a terminal in a service coverage, wherein the hub unit (30, 200) includes: a band extractor configured to extract sub-band signals corresponding to a same mobile communication service band from the mobile communication signals; and a signal summer configured to digitally sum all of the extracted sub-band signals in the same mobile communication service band (100A, 100B, 100C). a plurality of head-end units (100A, 100B, 100C) configured to receive mobile communication signals from different base stations, wherein each of the mobile communication signals includes a plurality of sub-band signals respectively corresponding to a plurality of mobile communication service bands; a hub unit (30, 200) connected to each of the plurality of head-end units HEU (100A, 100B, 100C) through a transport medium, the hub unit (30, 200) distributing mobile communication signals respectively received from the plurality of head-end units (100A, 100B, 100C) to a plurality of remote units branch-connected thereto through a transport medium; and the plurality of remote units remotely disposed to transmit the mobile communication signals to a terminal in a service coverage, wherein the hub unit (30, 200) includes: a band extractor configured to extract sub-band signals corresponding to a same mobile communication service band from the mobile communication signals; and a signal summer configured to digitally sum all of the extracted sub-band signals in the same mobile communication service band (100A, 100B, 100C). a band extractor configured to extract sub-band signals corresponding to a same mobile communication service band from the mobile communication signals; and a signal summer configured to digitally sum all of the extracted sub-band signals in the same mobile communication service band (100A, 100B, 100C).
Gate valve, in particular for an automatic transmission of a motor vehicle, comprising a valve housing which accommodates a guide element in which an axially movable valve gate is arranged, and the valve housing comprises at least one pressure connection and a tank connection axially spaced therefrom and a working connection, wherein at least one pressure connection opening connected to the pressure connection and a tank connection opening axially spaced therefrom and connected to the tank connection and a working connection opening axially arranged between the pressure connection opening and the tank connection opening and connected to the working connection are present on the guide element, wherein a channel that in regions extends axially is present in the valve housing and connects the working connection opening to the working connection, wherein the channel comprises at least one axially extending partial channel (50, 51) which is offset by 90° in the circumferential direction with respect to the pressure connection and/or the tank connection, wherein the axial partial channel (50, 51) has, at least in portions, an approximately circular-segment-shaped or sickle-shaped cross-section, wherein the channel is bounded radially inwardly by the outer wall of the guide element and radially outwardly by an inner wall of the valve housing, wherein the outer wall of the guide element consists of metal, and wherein the valve housing and also its inner wall consists of plastic, which surrounds the guide element, characterised in that the guide element is not completely encapsulated by the plastic material of the valve housing, but rather the front region of the guide element facing the working connection is free, wherein the metal end of the guide element facing the working connection is kept free from the plastic material of the valve housing and a support cap is fixedly arranged thereon, on the base of which a return spring acting on the valve gate is supported.
A method comprising: monitoring a plurality of wireless backhaul links (118a-118c) associated with a radio access network, RAN; receiving an indication of a change in operating conditions for a first wireless backhaul link of the plurality of wireless backhaul links (118a-118c); determining utilization of the first wireless backhaul link based on the indication of the change in operating conditions; assessing an available capacity of each of the plurality of wireless backhaul links (118a-118c); and adjusting cellular loading in the RAN to balance utilization across the plurality of wireless backhaul links (118a-118c) based on the utilization of the first wireless backhaul link and the available capacity of each of the plurality of wireless backhaul links (118a-118c). monitoring a plurality of wireless backhaul links (118a-118c) associated with a radio access network, RAN; receiving an indication of a change in operating conditions for a first wireless backhaul link of the plurality of wireless backhaul links (118a-118c); determining utilization of the first wireless backhaul link based on the indication of the change in operating conditions; assessing an available capacity of each of the plurality of wireless backhaul links (118a-118c); and adjusting cellular loading in the RAN to balance utilization across the plurality of wireless backhaul links (118a-118c) based on the utilization of the first wireless backhaul link and the available capacity of each of the plurality of wireless backhaul links (118a-118c).
A communication network comprising: a first Software Defined Network; and a second SDN; wherein, the first SDN is configurable to route data from a data flow through a selectable sequence of one or more entities defining a first service chain, wherein the entities defining the first service chain are selectable from one or more first SDN service applications (106a, 106b) and the second SDN; wherein each of the one or more first SDN service applications (106a, 106b) is for performing a service on data from the data flow at a logical layer within the communication network and wherein the second SDN is configurable to route data from the data flow received at the second SDN when the second SDN is one of the entities in the first service chain through a second service chain comprising one or more second SDN service applications (110a, 110b, 110c), wherein each of the one or more second SDN service applications (110a, 110b, 110c) is for performing a service on data from the data flow at a higher logical layer within the communication network than is each of the one or more first SDN service applications (106a, 106b). a first Software Defined Network; and a second SDN; wherein, the first SDN is configurable to route data from a data flow through a selectable sequence of one or more entities defining a first service chain, wherein the entities defining the first service chain are selectable from one or more first SDN service applications (106a, 106b) and the second SDN; wherein each of the one or more first SDN service applications (106a, 106b) is for performing a service on data from the data flow at a logical layer within the communication network and wherein the second SDN is configurable to route data from the data flow received at the second SDN when the second SDN is one of the entities in the first service chain through a second service chain comprising one or more second SDN service applications (110a, 110b, 110c), wherein each of the one or more second SDN service applications (110a, 110b, 110c) is for performing a service on data from the data flow at a higher logical layer within the communication network than is each of the one or more first SDN service applications (106a, 106b).
A stent delivery system (1; 51; 61; 91; 101) for placing a stent inside a body cavity following insertion into an endoscope, said stent delivery system (1; 51; 61; 91; 101) comprises: a long pusher catheter which is flexible; a guide catheter which is inserted into the lumen of said pusher catheter in a freely advancing and retracting manner; and a stent having a cylindrical main body into which said guide catheter is inserted, which is disposed to the front end of said pusher catheter, and a grip piece that consists of a long narrow member that is pliable, wherein said grip piece is attached to said main body and extends in axial direction from the main body and is disposed in the space between said guide catheter and said pusher catheter. a long pusher catheter which is flexible; a guide catheter which is inserted into the lumen of said pusher catheter in a freely advancing and retracting manner; and a stent having a cylindrical main body into which said guide catheter is inserted, which is disposed to the front end of said pusher catheter, and a grip piece that consists of a long narrow member that is pliable, wherein said grip piece is attached to said main body and extends in axial direction from the main body and is disposed in the space between said guide catheter and said pusher catheter.
Vehicle comprising a fuel tank having a bottom wall, a heat shield and an exhaust pipe formed by a duct terminating in an elongated exhaust silencer, said duct having a segment arranged upstream of the exhaust silencer and an elbow section connecting said exhaust silencer to said upstream segment, the heat shield being inserted between the bottom wall of the fuel tank and the exhaust pipe and extending along the upstream segment, the elbow section and the exhaust silencer, characterized in that the heat shield is made of three distinct parts (7, 8, 9), two end parts (7, 8) of which extend along the upstream segment and along the exhaust silencer, and a connecting part of which extends along the elbow section, and in that the connecting part of the heat shield is fastened to both end parts (7, 8) and is reinforced to withstand impacts of various projected bodies.
A method for providing environmental data to a vehicle, the method comprising: receiving a request from a vehicle to provide environmental data; defining a route plan vicinity area as a part of a coverage polygon; receiving alternate/back-up destinations (314-1, 314-2) selected from a list; defining and including in the coverage polygon one or more connection areas (316-1, 316-2) between the route plan vicinity area and the selected alternate/back-up destinations (314-1, 314-2); smoothing the coverage polygon; assembling environmental data for the smoothed coverage polygon; and sending the assembled environmental data to the vehicle. receiving a request from a vehicle to provide environmental data; defining a route plan vicinity area as a part of a coverage polygon; receiving alternate/back-up destinations (314-1, 314-2) selected from a list; defining and including in the coverage polygon one or more connection areas (316-1, 316-2) between the route plan vicinity area and the selected alternate/back-up destinations (314-1, 314-2); smoothing the coverage polygon; assembling environmental data for the smoothed coverage polygon; and sending the assembled environmental data to the vehicle.
A computing device readable medium having instructions for causing a device to perform a method for tooth modeling, comprising: receiving a patient information file for a treatment plan patient; analyzing the patient information file to determine whether a tooth is missing from the patient information file; and displaying a first tooth condition and a second tooth condition within a virtual model, wherein the first tooth condition is an un-erupted tooth and the second tooth condition is the un-erupted tooth virtually erupted and wherein the virtual model allows both conditions to be viewed at the same time. receiving a patient information file for a treatment plan patient; analyzing the patient information file to determine whether a tooth is missing from the patient information file; and displaying a first tooth condition and a second tooth condition within a virtual model, wherein the first tooth condition is an un-erupted tooth and the second tooth condition is the un-erupted tooth virtually erupted and wherein the virtual model allows both conditions to be viewed at the same time.
Method for the accelerated decryption of cryptographically protected payload data units, wherein the payload data unit is formed by a software component of a software component manufacturer, characterised by the following steps: (a) decryption of a received asymmetrically encrypted cryptographic key (ENC-K OEM) by a receiver by means of a private key (K PRIV) if the verification of a received related key identification (K OEM -ID) of the cryptographic key (K OEM) shows that the cryptographic key (K OEM) is not yet present in a decrypted state in the receiver, wherein the private key (K PRIV) is stored in a protected storage unit in the receiver; and (b) decryption of a received cryptographically encrypted payload data unit (ENC-NDE) using the cryptographic key (K OEM) present in the receiver or using the cryptographic key (K OEM) decrypted by means of the private key (K PRIV) if the cryptographic key (K OEM) is not present in the receiver. (a) decryption of a received asymmetrically encrypted cryptographic key (ENC-K OEM) by a receiver by means of a private key (K PRIV) if the verification of a received related key identification (K OEM -ID) of the cryptographic key (K OEM) shows that the cryptographic key (K OEM) is not yet present in a decrypted state in the receiver, wherein the private key (K PRIV) is stored in a protected storage unit in the receiver; and (b) decryption of a received cryptographically encrypted payload data unit (ENC-NDE) using the cryptographic key (K OEM) present in the receiver or using the cryptographic key (K OEM) decrypted by means of the private key (K PRIV) if the cryptographic key (K OEM) is not present in the receiver.