mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for supplying a purge gas to a multistage vacuum pump, the apparatus comprising: a gas inlet in fluid communication with a plurality of gas outlets for supplying gas to respective ports of the multistage pump; the gas outlets having control orifices for supplying gas to the respective ports at proportionally fixed gas flow rates, wherein the control orifices in said gas outlets have a fixed size ratio relative to each other; the apparatus further comprising a control module for controlling the gas flow to the gas inlet in response to a control signal, such that the total flow is varied while the flow through the separate gas outlets remains in the same fixed linear proportion to one another. a gas inlet in fluid communication with a plurality of gas outlets for supplying gas to respective ports of the multistage pump; the gas outlets having control orifices for supplying gas to the respective ports at proportionally fixed gas flow rates, wherein the control orifices in said gas outlets have a fixed size ratio relative to each other; the apparatus further comprising a control module for controlling the gas flow to the gas inlet in response to a control signal, such that the total flow is varied while the flow through the separate gas outlets remains in the same fixed linear proportion to one another.
A method for determining the optimum conditions for localised or spatial detection of RNA in a tissue sample on an object substrate, comprising: (a) providing an object substrate on which at least one species of capture probe, comprising a capture domain, is directly or indirectly immobilized such that the probes are oriented to have a free 3' end to enable said probe to function as a reverse transcriptase primer; (b) contacting said substrate with a tissue sample and allowing RNA of the tissue sample to hybridise to the capture probes; (c) generating cDNA molecules from the captured RNA molecules using said capture probes as RT primers; (d) labelling the cDNA molecules generated in step (c), wherein said labelling step may be contemporaneous with, or subsequent to, said generating step, wherein the label is not the capture probe or a part thereof; (e) detecting a signal from the labelled cDNA molecules; (f) optionally imaging the tissue sample, wherein the tissue sample is imaged before or after step (c), preferably wherein the tissue sample is imaged using light, bright field, dark field, phase contrast, fluorescence, reflection, interference or confocal microscopy or a combination thereof, preferably using fluorescence microscopy; (g) repeating steps (a)-(e), and optionally step (f) using different conditions in step (b); (h) comparing the intensity and/or resolution of the signal from the labelled cDNA molecules immobilized on the object substrate from steps (e) and (g); and optionally (i) selecting the conditions that provide the optimum signal intensity and/or resolution of the labelled cDNA molecules. (a) providing an object substrate on which at least one species of capture probe, comprising a capture domain, is directly or indirectly immobilized such that the probes are oriented to have a free 3' end to enable said probe to function as a reverse transcriptase primer; (b) contacting said substrate with a tissue sample and allowing RNA of the tissue sample to hybridise to the capture probes; (c) generating cDNA molecules from the captured RNA molecules using said capture probes as RT primers; (d) labelling the cDNA molecules generated in step (c), wherein said labelling step may be contemporaneous with, or subsequent to, said generating step, wherein the label is not the capture probe or a part thereof; (e) detecting a signal from the labelled cDNA molecules; (f) optionally imaging the tissue sample, wherein the tissue sample is imaged before or after step (c), preferably wherein the tissue sample is imaged using light, bright field, dark field, phase contrast, fluorescence, reflection, interference or confocal microscopy or a combination thereof, preferably using fluorescence microscopy; (g) repeating steps (a)-(e), and optionally step (f) using different conditions in step (b); (h) comparing the intensity and/or resolution of the signal from the labelled cDNA molecules immobilized on the object substrate from steps (e) and (g); and optionally (i) selecting the conditions that provide the optimum signal intensity and/or resolution of the labelled cDNA molecules.
An orthopedic system having a leaf spring element and a bearing component which is supported on the main surface of the leaf spring element and is fixed to the leaf spring element, whereas at least one elastomer element (71, 72) is arranged between the bearing component and the main surface of the leaf spring element and is fastened to the leaf spring element and to the bearing component in a manner transmitting tensile forces and shear forces, characterized in that the bearing component is mounted elastically on the leaf spring element in three rotational and translational degrees of freedom.
An apparatus for loading yarns into stitch-forming tools of a textile machine arranged in at least one row and extending to a stroke range, comprising a yarn loader having at least one rotor (4, 5, 20, 21, 30, 31, 40, 41) at least one yarn guide (4a, 4b, 4c, 5a, 5b, 5c, 20a, 20b, 21a, 21b, 30a, 30b, 40a, 40b), wherein the yarn loader lays a yarn back and forth in two directions (HI, HR) along a full machine width in front of the row of tools, characterized in that the yarn loader has at least a pair of rotors (4, 5, 20, 21, 30, 31, 40, 41), the rotors (4, 5, 20, 21, 30, 31, 40, 41) of each pair being axially one above the other and rotatable in respective opposite directions of rotation (R1, R2), wherein each rotor (4, 5, 20, 21, 30, 31, 40, 41) has at least one yarn guide (4a, 4b, 4c, 5a, 4b, 4c, 20a, 20b, 21a, 21b, 30a, 30b, 40a, 40b) formed as a driver element for laying the yarn in a respective one of the directions (HI, HR).
A sound absorbing means containing two resonant membranes adapted for absorbing sounds of low frequencies, at least one perforated board comprising at least one orifice and one cavity, the perforated board constituting a cavity resonator, wherein at least one resonant membrane is made by a layer of polymeric nanofibers, which absorbs sounds of low frequencies by friction in its inner fibrous structure, whereas the resonant membranes are arranged and fixedly attached on both opposing surfaces of the cavity resonator, which is adapted for absorbing sounds of high frequencies, whereby one resonant membrane overlaps the at least one orifice leading into the cavity of the cavity resonator and the part of the resonant membrane overlapping this at least one orifice constitutes a separate resonant surface.
A method for modification of natural coffee beans, consisting of removing derivatives of organic acids of N-alkanylo-5-hydroxytryptamides (C5-HT) to a total value lower than 400 μg per gram of roasted coffee, characterized in that the green coffee beans or mixture of green coffee beans are immersed in a water solution of natural di- and tri-carboxyl organic acids with a concentration in the range of 0.5 to 10 g/l, advantageously 5 g/l, after which it is extracted for 0.5-10 hours, advantageously 5 hours, then the solution in which the beans were immersed is decanted, the beans are flushed with water, and then dried with hot air at a temperature of 40-150°C until the beans reach a humidity below 15%, then the beans are subjected to a roasting process in a known method.
A method for performing a registration by a user equipment, UE, in a wireless communication system, the method comprising: initiating, by the UE, a first registration to a 5G network through a first network access; and initiating, by the UE, a second registration to the 5G network through a second network access only after the first registration through the first network access is completed so that the UE is parallelly connected to the 5G network through both the first network access and the second network access, wherein information on AMF allocated to the UE during the first registration is reused during the second registration, to select only one Access and Mobility Management Function, AMF, for the UE being parallelly connected through the first and second network accesses, wherein the AMF selected from the information allocated during the first registration through the first network access is identical to an AMF selected from the first network access as an AMF of the UE, and wherein the first network access and the second network access are non-3GPP access and 3GPP access, respectively, or are 3GPP access and non-3GPP access, respectively. initiating, by the UE, a first registration to a 5G network through a first network access; and initiating, by the UE, a second registration to the 5G network through a second network access only after the first registration through the first network access is completed so that the UE is parallelly connected to the 5G network through both the first network access and the second network access, wherein information on AMF allocated to the UE during the first registration is reused during the second registration, to select only one Access and Mobility Management Function, AMF, for the UE being parallelly connected through the first and second network accesses, wherein the AMF selected from the information allocated during the first registration through the first network access is identical to an AMF selected from the first network access as an AMF of the UE, and wherein the first network access and the second network access are non-3GPP access and 3GPP access, respectively, or are 3GPP access and non-3GPP access, respectively.
An organic electronic device comprising an anode layer, a cathode layer, at least one emission layer and at least one hole injection layer, wherein the hole injection layer is arranged between the anode layer and the at least one emission layer; wherein - the hole injection layer comprises an organic matrix compound and a metal complex, wherein the metal complex has the formula: M n⊕ (L ⊝) n, wherein M is a metal ion, n is the valency of M, L is a ligand, n is an integer from 1 to 4; and - the at least one emission layer comprises at least one emitter matrix compound, wherein the HOMO level of the emitter matrix compound and the HOMO level of the organic matrix compound fulfills the following equation: − 0.24 eV < HOMO level EMC − HOMO level OMC ≤ 0.8 eV, wherein the HOMO level of the organic matrix compound and the HOMO level of the emitter matrix compound are calculated with the program package TURBOMOLE V6.5, available from TURBOMOLE GmbH, Litzenhardtstrasse 19, 76135 Karlsruhe, Germany, wherein the optimized geometries and the HOMO level of the molecular structures are determined by applying the hybrid functional B3LYP with a 6-31G* basis set in the gas phase. - the hole injection layer comprises an organic matrix compound and a metal complex, wherein the metal complex has the formula: M n⊕ (L ⊝) n, wherein M is a metal ion, n is the valency of M, L is a ligand, n is an integer from 1 to 4; and M is a metal ion, n is the valency of M, L is a ligand, n is an integer from 1 to 4; and - the at least one emission layer comprises at least one emitter matrix compound, wherein the HOMO level of the emitter matrix compound and the HOMO level of the organic matrix compound fulfills the following equation: − 0.24 eV < HOMO level EMC − HOMO level OMC ≤ 0.8 eV, wherein the HOMO level of the organic matrix compound and the HOMO level of the emitter matrix compound are calculated with the program package TURBOMOLE V6.5, available from TURBOMOLE GmbH, Litzenhardtstrasse 19, 76135 Karlsruhe, Germany, wherein the optimized geometries and the HOMO level of the molecular structures are determined by applying the hybrid functional B3LYP with a 6-31G* basis set in the gas phase.
A method for providing a customized audio experience to a user of an audio output device, comprising: providing a user interface on a user device communicatively coupled to the audio output device, the user interface capable of accepting user input for managing the audio experience for the user; providing via the user interface a set of activities, wherein each activity in the set invokes a set of behaviors (304, 306, 308, 310) configured for the activity for providing the customized audio experience to the user, wherein each behavior in the set customizes the audio experience for the user; and providing a capability for the user to launch an activity from the set for invoking the set of behaviors configured for the activity to receive the customized audio experience. providing a user interface on a user device communicatively coupled to the audio output device, the user interface capable of accepting user input for managing the audio experience for the user; providing via the user interface a set of activities, wherein each activity in the set invokes a set of behaviors (304, 306, 308, 310) configured for the activity for providing the customized audio experience to the user, wherein each behavior in the set customizes the audio experience for the user; and providing a capability for the user to launch an activity from the set for invoking the set of behaviors configured for the activity to receive the customized audio experience.
Method for operating at least one telecommunication network, wherein a piece of software for performing switching operations for telecommunication links and/or services is executed on a central server at an exchange for the at least one telecommunication network, characterized in that if there is not sufficient switching capacity at a network-dedicated exchange then the switching capacity is increased by virtue of the server of the exchange or a station that is authorized in this regard sending a number of software packages to at least one further exchange that corresponds to the number of required exchanges in order to obtain a required switching capacity, wherein each software package, upon reaching an exchange, at least intermittently installs a piece of executable software for performing mass alerting or activates an existent piece of software for performing mass alerting and, following installation/activation, denotes this exchange as occupied by the software, so that further software packages arriving at an occupied exchange are automatically rejected and diverted until all of the software packages sent have found and occupied a free exchange.
A computer-implemented method for audio transcription of speech comprising: receiving an input audio from a user, the input audio comprising a plurality of utterances; generating a set of spectrogram frames for each of the plurality of utterances; inputting the set of spectrogram frames into a recurrent neural network model, the RNN model comprising one or more convolution layers and one or more recurrent layers, wherein the RNN model further comprises a row convolution layer placed above the one or more recurrent layers, and the row convolution layer is a unidirectional and forward-only layer; obtaining an activation of the row convolution layer using information from the recurrent layers at a current time step and at least one future time step; feeding the obtained activation of the row convolution layer to a classifier for output prediction corresponding to the current time step; the RNN model being pre-trained using a plurality of minibatches of training utterance sequences sampled from a training data set, the plurality of minibatches being batch normalized to normalize pre-activations in at least one of the one or more recurrent layers during training; obtaining probabilities outputs for one or more predicted characters from the RNN model; and performing a search to find the most probable transcription of each utterance using the probabilities outputs constrained by a language model that interprets a string of characters from the predicted character probabilities outputs as a word or words. receiving an input audio from a user, the input audio comprising a plurality of utterances; generating a set of spectrogram frames for each of the plurality of utterances; inputting the set of spectrogram frames into a recurrent neural network model, the RNN model comprising one or more convolution layers and one or more recurrent layers, wherein the RNN model further comprises a row convolution layer placed above the one or more recurrent layers, and the row convolution layer is a unidirectional and forward-only layer; obtaining an activation of the row convolution layer using information from the recurrent layers at a current time step and at least one future time step; feeding the obtained activation of the row convolution layer to a classifier for output prediction corresponding to the current time step; the RNN model being pre-trained using a plurality of minibatches of training utterance sequences sampled from a training data set, the plurality of minibatches being batch normalized to normalize pre-activations in at least one of the one or more recurrent layers during training; obtaining probabilities outputs for one or more predicted characters from the RNN model; and performing a search to find the most probable transcription of each utterance using the probabilities outputs constrained by a language model that interprets a string of characters from the predicted character probabilities outputs as a word or words.
A core for a cleaning sponge roller, said core being in a cylindrical shape comprising a bore extending in an axial direction and a plurality of small holes communicating between said bore and a circumferential outer surface of the core, wherein a diameter of said bore is 10 mm to 20 mm and a diameter of said small holes is 2.5 mm to 5mm, and a total of cross-sectional areas of the openings of the plurality of the small holes is 1.2 to 5 times larger than the cross-sectional area of the bore; and the plurality of small holes are distributed both in a circumferential direction and in an axial direction of said core and aligned along straight lines in the axial direction, small holes in one of the straight lines and small holes in a straight line adjacent to said one of the straight lines are arranged on one and the same circumference of the core, and grooves (4,4', 4") recessed in the circumferential outer surface of said core extend in the axial direction of said core and said small holes open into said grooves (4, 4', 4").
Structural component for a motor vehicle body, in particular a B-pillar, comprising: an outer panel with an outer wall, two side walls (8, 8') opposing each other and two outer flange portions (9, 9') projecting laterally therefrom; an inner panel with an inner wall, two side walls (11, 11') opposing each other and two inner flange portions (12, 12') projecting laterally therefrom; a reinforcing profile with a profile base, two profile walls (14, 14') opposing each other and two connecting portions (15, 15') connected thereto; wherein, at least in an upper section (Pa) of the structural component, a maximum profile height of the reinforcing profile is greater than a maximum profile height of the outer panel, and the connecting portions (15, 15') of the reinforcing profile are supported against the inner wall of the inner panel, and the outer flange portions (9, 9') and the inner flange portions (12, 12') abut directly against one another and are fixed to one another; characterized in that the connecting portions (15, 15') of the reinforcing profile, at least in a lower section (Pc) of the structural component, are fixed between the outer flange portions (9, 9') of the outer panel and the inner flange portions (12, 12') of the inner panel. an outer panel with an outer wall, two side walls (8, 8') opposing each other and two outer flange portions (9, 9') projecting laterally therefrom; an inner panel with an inner wall, two side walls (11, 11') opposing each other and two inner flange portions (12, 12') projecting laterally therefrom; a reinforcing profile with a profile base, two profile walls (14, 14') opposing each other and two connecting portions (15, 15') connected thereto; wherein, at least in an upper section (Pa) of the structural component, a maximum profile height of the reinforcing profile is greater than a maximum profile height of the outer panel, and the connecting portions (15, 15') of the reinforcing profile are supported against the inner wall of the inner panel, and the outer flange portions (9, 9') and the inner flange portions (12, 12') abut directly against one another and are fixed to one another; characterized in that the connecting portions (15, 15') of the reinforcing profile, at least in a lower section (Pc) of the structural component, are fixed between the outer flange portions (9, 9') of the outer panel and the inner flange portions (12, 12') of the inner panel.
A method executed by at least one processor of a first compute node performing the steps of: establishing a persistent control path with a second compute node; establishing an on-demand data path 219) with the second compute node; communicating control information to the second compute node via the persistent control path while simultaneously communicating content to the second compute node via the on-demand data path characterized by promptly disabling the established on-demand data path after communicating the content to the second compute node while simultaneously maintaining the persistent control path after communicating the control information to the second compute node. establishing a persistent control path with a second compute node; establishing an on-demand data path 219) with the second compute node; communicating control information to the second compute node via the persistent control path while simultaneously communicating content to the second compute node via the on-demand data path characterized by promptly disabling the established on-demand data path after communicating the content to the second compute node while simultaneously maintaining the persistent control path after communicating the control information to the second compute node.
A cryptographic key determination device adapted to determine one or more cryptographic keys in a cryptographic device, the cryptographic device being configured to execute one or more test programs, the cryptographic device comprising one or more components (11-i), each component (11-i) being configured to generate static and dynamic data, said dynamic data being generated in response to the execution of said one or more test programs and representing a dynamic behavior of said cryptographic device, wherein the cryptographic key determination device comprises: - a data extraction unit configured to extract at least one part of the static data and at least one part of the dynamic data generated by said one or more components (11-i) according to a data volume threshold previously determined depending one or more of a security level, a performance level, a key computation complexity, and latency required for the generation of one or more cryptographic keys from the extracted data, and - a key generator configured to combine said at least one part of static data and said at least one part of dynamic data, and to determine said one or more cryptographic keys by applying a cryptographic function to said combined data. - a data extraction unit configured to extract at least one part of the static data and at least one part of the dynamic data generated by said one or more components (11-i) according to a data volume threshold previously determined depending one or more of a security level, a performance level, a key computation complexity, and latency required for the generation of one or more cryptographic keys from the extracted data, and - a key generator configured to combine said at least one part of static data and said at least one part of dynamic data, and to determine said one or more cryptographic keys by applying a cryptographic function to said combined data.