mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an implant having a modulus of elasticity E of 10-70 GPa, including a. the collection of patient data regarding the environment into which an implant is to be inserted, wherein the collected patient data includes i. the force application under mechanical load, ii. the bone density, and/or iii. the spatial structure of the environment, b. the creation of a model for a customized implant based on the collected patient data, wherein i. a three-dimensional structure of the implant, ii. a material composition including a thermoplastic plastic, reinforcing long fibers and optionally compound additives, and iii. a multidirectional arrangement of the reinforcing long fibers and optionally of the compound additives are calculated, c. the production of the customized implant based on the calculated model by 3D printing and/or laser sintering. a. the collection of patient data regarding the environment into which an implant is to be inserted, wherein the collected patient data includes i. the force application under mechanical load, ii. the bone density, and/or iii. the spatial structure of the environment, i. the force application under mechanical load, ii. the bone density, and/or iii. the spatial structure of the environment, b. the creation of a model for a customized implant based on the collected patient data, wherein i. a three-dimensional structure of the implant, ii. a material composition including a thermoplastic plastic, reinforcing long fibers and optionally compound additives, and iii. a multidirectional arrangement of the reinforcing long fibers and optionally of the compound additives are calculated, i. a three-dimensional structure of the implant, ii. a material composition including a thermoplastic plastic, reinforcing long fibers and optionally compound additives, and iii. a multidirectional arrangement of the reinforcing long fibers and optionally of the compound additives are calculated, c. the production of the customized implant based on the calculated model by 3D printing and/or laser sintering.
A method in a user plane node comprising: receiving, from a session management node, a first request for obtaining a first port number of a logical time sensitive network, TSN, bridge at a side of a terminal device; determining the first port number for the terminal device; determining configuration information of the logical TSN bridge at a side of the user plane node; and sending the determined first port number and configuration information to the session management node. receiving, from a session management node, a first request for obtaining a first port number of a logical time sensitive network, TSN, bridge at a side of a terminal device; determining the first port number for the terminal device; determining configuration information of the logical TSN bridge at a side of the user plane node; and sending the determined first port number and configuration information to the session management node.
Composite material, comprising a polymer matrix; and zeolite, which is bonded in the polymer matrix; wherein the share of the volume of the zeolite in the volume of the composite material is at least 50%, particularly at least 65%, wherein the polymer matrix has a polymer which is selected from a group of polymers that consist of fluoroplastics.
An in vitro method for estimation of portal blood flow in a subject from a single blood or serum sample, the method comprising: receiving a sample consisting of a single blood or serum sample collected from a subject having, or suspected of having or developing, a hepatic disorder, wherein the single blood or serum sample is collected at one time point selected from 30 to 180 minutes following oral administration of a distinguishable cholate compound to the subject, wherein no other distinguishable cholate compound is intravenously co-administered, and wherein the sample has been collected from the subject at a single, specific time point after oral administration of the distinguishable cholate compound to the subject; measuring the concentration of the orally administered distinguishable cholate compound in the single blood or serum sample; and comparing the concentration of the distinguishable cholate compound in the single blood or serum sample from the subject to a distinguishable cholate compound concentration cutoff value or cutoffs of values established from a known patient population, wherein the concentration of distinguishable cholate compound in the sample compared to distinguishable cholate compound concentration cutoff value or cutoffs of values in the known patient population is an estimation of portal blood flow in the subject. receiving a sample consisting of a single blood or serum sample collected from a subject having, or suspected of having or developing, a hepatic disorder, wherein the single blood or serum sample is collected at one time point selected from 30 to 180 minutes following oral administration of a distinguishable cholate compound to the subject, wherein no other distinguishable cholate compound is intravenously co-administered, and wherein the sample has been collected from the subject at a single, specific time point after oral administration of the distinguishable cholate compound to the subject; measuring the concentration of the orally administered distinguishable cholate compound in the single blood or serum sample; and comparing the concentration of the distinguishable cholate compound in the single blood or serum sample from the subject to a distinguishable cholate compound concentration cutoff value or cutoffs of values established from a known patient population, wherein the concentration of distinguishable cholate compound in the sample compared to distinguishable cholate compound concentration cutoff value or cutoffs of values in the known patient population is an estimation of portal blood flow in the subject.
Sensor (102; 202) for ascertaining a condition of a roadway surface for a motor vehicle, said sensor comprising - at least one light source unit (112; 212); - a first detector (122; 222) for detecting diffusely reflected light, wherein a first polarizer with a first polarization direction is disposed upstream of the first detector (122; 222); and - a second detector (132; 232) for detecting reflected light (16; 26), wherein a light source polarizer (114; 214) is disposed upstream of the at least one light source unit (112; 212), the polarization direction of said light source polarizer being aligned perpendicular to the first polarization direction of the first polarizer, wherein the diffusely and specularly reflected light (16; 26) is focused by way of a common focusing device (160; 162; 260) with an optical axis (A; B) and split by means of a beam splitter (150; 250) to the first detector (122; 222) and the second detector (132; 232) and wherein light (11; 21) emitted by the at least one light source unit (112; 212) is at least partly superposed with the optical axis (A; B) of the focusing device (160; 162; 260), wherein the beam splitter (150; 250) is disposed in the light beam of the reflected light (16; 26) between the focusing device (160; 162; 260) and the focus (161; 261) of the focusing device (160; 162; 260), the first detector (122; 222) is disposed in the focus (161; 261) of the focusing device (160; 162; 260); the at least one light source unit (112; 212), an emitter lens (116, 117; 216), which focuses the emitted light (11; 21) and which is associated with the at least one light source unit (112; 212), and the light source polarizer (114, 214) are disposed on the optical axis (A; B) of the focusing device (160; 162; 260) and the at least one light source unit (112; 212) is disposed along the optical axis (A; B) between the beam splitter (150; 250) and the light source polarizer (114; 214). - at least one light source unit (112; 212); - a first detector (122; 222) for detecting diffusely reflected light, wherein a first polarizer with a first polarization direction is disposed upstream of the first detector (122; 222); and - a second detector (132; 232) for detecting reflected light (16; 26),
A system to treat a patient having pelvic floor dysfunction or disorder comprising: a processor for operating a signal generator according to a stimulation protocol to provide at least one stimulation signal, said processor configured to store at least one of a plurality of stimulation parameters effective in treating at least one symptom of a pelvic floor dysfunction or disorder when said at least one stimulation signal is applied to a saphenous nerve within a lower limb of a patient; at least a first neurostimulator (50, 110) coupled to said processor and said signal generator, the at least first neurostimulator (50, 110) configured to provide the at least one stimulation signal in accordance with said stimulation protocol; and, at least one stimulator (88, 90, 116) for receiving the at least one stimulation signal from said at least first neurostimulator (50, 110), said at least one stimulator (88, 90, 116) positioned adjacent to at least a portion of the saphenous nerve for applying said at least one stimulation signal to the saphenous nerve, whereby the patient pelvic dysfunction or disorder is treated. a processor for operating a signal generator according to a stimulation protocol to provide at least one stimulation signal, said processor configured to store at least one of a plurality of stimulation parameters effective in treating at least one symptom of a pelvic floor dysfunction or disorder when said at least one stimulation signal is applied to a saphenous nerve within a lower limb of a patient; at least a first neurostimulator (50, 110) coupled to said processor and said signal generator, the at least first neurostimulator (50, 110) configured to provide the at least one stimulation signal in accordance with said stimulation protocol; and, at least one stimulator (88, 90, 116) for receiving the at least one stimulation signal from said at least first neurostimulator (50, 110), said at least one stimulator (88, 90, 116) positioned adjacent to at least a portion of the saphenous nerve for applying said at least one stimulation signal to the saphenous nerve, whereby the patient pelvic dysfunction or disorder is treated.
An MRAM cell comprising: a magnetic storage element comprising a spin momentum transfer device, the magnetic storage element including, from top to bottom, a first electrode, a magnetic free layer, a barrier layer, and a magnetic pinned layer, arranged sequentially in a stacked formation; at least three conductive segments electrically coupled to the magnetic storage element and forming a bit line connected to the top of the magnetic storage element, a second electrode connected to the bottom of the magnetic storage element, and a word line coupled to the second electrode; and a magnetic liner partially surrounding each conductive segment, the magnetic liner comprising a material with a characteristic magnetic response that acts to divert at least a portion of a magnetic field created by a current passing through the conductive segments away from the magnetic storage element, wherein the bit line is formed of copper and the magnetic liner forms a barrier between the bit line and adjacent components so as to limit copper electro-migration to adjacent components. a magnetic storage element comprising a spin momentum transfer device, the magnetic storage element including, from top to bottom, a first electrode, a magnetic free layer, a barrier layer, and a magnetic pinned layer, arranged sequentially in a stacked formation; at least three conductive segments electrically coupled to the magnetic storage element and forming a bit line connected to the top of the magnetic storage element, a second electrode connected to the bottom of the magnetic storage element, and a word line coupled to the second electrode; and a magnetic liner partially surrounding each conductive segment, the magnetic liner comprising a material with a characteristic magnetic response that acts to divert at least a portion of a magnetic field created by a current passing through the conductive segments away from the magnetic storage element, wherein the bit line is formed of copper and the magnetic liner forms a barrier between the bit line and adjacent components so as to limit copper electro-migration to adjacent components.
A receiver, wherein the receiver comprises an attenuation circuit, a low-noise amplification circuit, an orthogonal down-frequency conversion circuit, and a control circuit (14, 309), an output end of the attenuation circuit is coupled to an input end of the low-noise amplification circuit, an output end of the low-noise amplification circuit is coupled to an input end of the orthogonal down-frequency conversion circuit, and the control circuit (14, 309) is separately coupled to the low noise amplification circuit and the attenuation circuit, wherein the attenuation circuit is configured to receive an input signal, and obtain a first signal according to the input signal, wherein the first signal is the input signal or an attenuated signal obtained after the input signal is attenuated; the low-noise amplification circuit is configured to receive the first signal, and obtain a second signal according to the first signal, wherein the second signal is the first signal or an amplified signal obtained after low-noise amplification processing is performed on the first signal; the orthogonal down-frequency conversion circuit is configured to receive the second signal, and process the second signal to obtain an output signal; and the control circuit (14, 309) is configured to separately control the attenuation circuit and the low-noise amplification circuit according to power of an interference signal comprised in the output signal, so as to determine whether the attenuation circuit attenuates the input signal and whether the low-noise amplification circuit amplifies the first signal; wherein the orthogonal down-frequency conversion circuit comprises a low-pass filter, LPF; the control circuit (14, 309) is coupled to the LPF; and the control circuit (14, 309) is further configured to: control the LPF to attenuate, according to a preset first attenuation value, a signal that is input to the LPF, or control the LPF to attenuate, according to the preset first attenuation value, the signal that is input to the LPF, and control a digital control attenuator, DSA of the attenuation circuit to attenuate the input signal according to a preset second attenuation value.
Roll for a paper machine for producing or processing a fibrous web such as a paper, cardboard or tissue web, comprising a metallic roll core and a roll covering which is applied to the roll core, wherein the roll covering, when viewed in terms of the longitudinal axis of the roll, has a plurality of layers which are disposed radially on top of one another, specifically a radially innermost binding layer (8.1) and a radially outer carrier layer (8.2) which is applied directly to the binding layer (8.1), characterized in that the binding layer (8.1) is produced from a rubber which is crosslinked by peroxidic means, and the carrier layer (8.2) is produced from a rubber which is crosslinked by sulphur.
A card for processing fibers, with a drum with a drum circumference, a drum surface, and a working width, wherein carding elements for parallelizing the fibers and separating elements (13, 14, 15) for separating trash and short fibers are arranged opposite the drum, which can be rotated about an axis of rotation in a direction of rotation, wherein the separating elements (13, 14, 15) are provided with an extraction duct, wherein the drum circumference is divided into a pre-carding zone, a main carding zone, a post-carding zone, and a sub-carding zone, and wherein the carding elements and the separating elements (13, 14, 15) span over the entire working width, characterized in that, in the post-carding zone, the pre-carding zone, or the sub-carding zone, at least one separating element (13, 14, 15) with a base body, an extraction duct, and a blade element is provided, with the blade element having a plurality of discharge openings and knife blades that are associated with the discharge openings, and with at least one air-guiding element being arranged between the extraction duct and the blade element.
An energy efficient method for participatory sensing, by enabling at least one power effective sensor to monitor operation of one or more power intensive sensors, wherein: the at least one power effective sensor remains in an active state to capture and analyze contextual information related to an object area, wherein the analysis of the contextual information is based on vehicular static or dynamic state interpreted from accelerometer data and vehicle-honking rate; in response to receiving analyzed contextual information from the at least one power effective sensor, triggering the one or more power intensive sensors to initiate audio recording for extracting at least one feature from the audio recording, and concurrently generate a corresponding metadata file, wherein variance of the accelerometer data is computed and compared against a threshold limit prior to triggering the power intensive sensors into an active state; and transmitting the at least one feature and the metadata file for analysis to a backend server, wherein said at least one feature and the metadata file are analyzed for tracking object area condition the at least one power effective sensor remains in an active state to capture and analyze contextual information related to an object area, wherein the analysis of the contextual information is based on vehicular static or dynamic state interpreted from accelerometer data and vehicle-honking rate; in response to receiving analyzed contextual information from the at least one power effective sensor, triggering the one or more power intensive sensors to initiate audio recording for extracting at least one feature from the audio recording, and concurrently generate a corresponding metadata file, wherein variance of the accelerometer data is computed and compared against a threshold limit prior to triggering the power intensive sensors into an active state; and transmitting the at least one feature and the metadata file for analysis to a backend server, wherein said at least one feature and the metadata file are analyzed for tracking object area condition
A hydrocarbon recovery method comprising: in a subterranean hydrocarbon reservoir comprising a hydrocarbon-bearing zone above a water-bearing zone: injecting a first injectant of a first type into the water-bearing zone through a first injection well (106b, 106d, 204a, 208a) formed to a first depth in the water-bearing zone, the first injectant configured to sweep hydrocarbons in the hydrocarbon-bearing zone toward a surface of the subterranean hydrocarbon reservoir; and injecting a second injectant of a second type different from the first type into the water-bearing zone through a second injection well (106a, 106c, 204b, 208b) formed to a second depth deeper than the first depth in the water-bearing zone, the second injectant injected to form a fluidic barrier that prevents a portion of the first injectant that was injected through the first injection well from flowing downward, away from the surface. injecting a first injectant of a first type into the water-bearing zone through a first injection well (106b, 106d, 204a, 208a) formed to a first depth in the water-bearing zone, the first injectant configured to sweep hydrocarbons in the hydrocarbon-bearing zone toward a surface of the subterranean hydrocarbon reservoir; and injecting a second injectant of a second type different from the first type into the water-bearing zone through a second injection well (106a, 106c, 204b, 208b) formed to a second depth deeper than the first depth in the water-bearing zone, the second injectant injected to form a fluidic barrier that prevents a portion of the first injectant that was injected through the first injection well from flowing downward, away from the surface.
An apparatus for tuning tremor suppression, the apparatus comprising: a garment configured to be worn on an anatomical region of a patient and including an array of electrodes disposed on an inside the garment and contacting the anatomical region when the garment is worn on the anatomical region; and an electronic controller configured to: receive measurements from the array of electrodes disposed on the inside of the garment of baseline tremors in the anatomical region prior to the application of an electrical stimulation to the patient by Vagus Nerve Stimulation or Direct Brain Stimulation; during or after the application of the electrical stimulation by VNS or DBS, receive measurements from the array of electrodes disposed on the inside of the garment of modified tremors in the anatomical region as function of time; and provide tremor suppression feedback to the VNS or DBS based on the measurements of the baseline tremors and the measurements of the modified tremors as a function of time. a garment configured to be worn on an anatomical region of a patient and including an array of electrodes disposed on an inside the garment and contacting the anatomical region when the garment is worn on the anatomical region; and an electronic controller configured to: receive measurements from the array of electrodes disposed on the inside of the garment of baseline tremors in the anatomical region prior to the application of an electrical stimulation to the patient by Vagus Nerve Stimulation or Direct Brain Stimulation; during or after the application of the electrical stimulation by VNS or DBS, receive measurements from the array of electrodes disposed on the inside of the garment of modified tremors in the anatomical region as function of time; and provide tremor suppression feedback to the VNS or DBS based on the measurements of the baseline tremors and the measurements of the modified tremors as a function of time. receive measurements from the array of electrodes disposed on the inside of the garment of baseline tremors in the anatomical region prior to the application of an electrical stimulation to the patient by Vagus Nerve Stimulation or Direct Brain Stimulation; during or after the application of the electrical stimulation by VNS or DBS, receive measurements from the array of electrodes disposed on the inside of the garment of modified tremors in the anatomical region as function of time; and provide tremor suppression feedback to the VNS or DBS based on the measurements of the baseline tremors and the measurements of the modified tremors as a function of time.