mhurhangee/patent-ind-claim-en huggingface dataset:
Non-therapeutic computer-implemented method for analysing audio tracks for playback to a human subject according to a preselected desired arousal state of the human subject, wherein the arousal state of the human subject is indicated by galvanic skin conductance or by heart rate, comprising the steps of: (i) storing a set of individual audio tracks operable for selection for playback; (ii) predicting a neuro-physiological excitement response to the individual audio tracks according to a neuro-physiological model of the functioning and response of one or more of the human lower cortical, limbic and subcortical regions in the brain to sounds; and in which values of rhythmicity, inharmonicity and turbulence, of tracks, are automatically determined using signal processing techniques, and further comprising the step of combining the values of rhythmicity, inharmonicity and turbulence to yield a predictive value of excitement or arousal of the human subject, wherein for each track, turbulence T equals dH/dt ∗ P, where H is harmonicity, P is the energy present during peaks of volume of the track, and t is time; (iii) receiving a selected desired arousal state of the human subject; (iv) selecting audio tracks according to the predictive value of neuro-physiological excitement response to the individual music tracks, and according to the selected desired arousal state of the human subject; and (v) playing the selected audio tracks. (i) storing a set of individual audio tracks operable for selection for playback; (ii) predicting a neuro-physiological excitement response to the individual audio tracks according to a neuro-physiological model of the functioning and response of one or more of the human lower cortical, limbic and subcortical regions in the brain to sounds; and in which values of rhythmicity, inharmonicity and turbulence, of tracks, are automatically determined using signal processing techniques, and further comprising the step of combining the values of rhythmicity, inharmonicity and turbulence to yield a predictive value of excitement or arousal of the human subject, wherein for each track, turbulence T equals dH/dt ∗ P, where H is harmonicity, P is the energy present during peaks of volume of the track, and t is time; (iii) receiving a selected desired arousal state of the human subject; (iv) selecting audio tracks according to the predictive value of neuro-physiological excitement response to the individual music tracks, and according to the selected desired arousal state of the human subject; and (v) playing the selected audio tracks.
A powder grain comprising a plurality of channels which may or may not be open, at least one channel being partially or completely closed by at least one stopper, said at least one stopper being made of a material whose melting temperature is greater than or equal to the maximum hot operating temperature of the powder grain, said material having a composition identical to or different from that of the powder grain, it being understood that when at least one stopper is made of a material having a composition different from that of the powder grain, said material is an energetic material or an inflammable material.
An in vitro method for diagnosing atypical hemolytic uremic syndrome (aHUS), antiphospholipid antibody syndrome (APS), or hemolysis, elevated liver enzymes and low platelets (HELLP) syndrome in a patient comprising the steps of: a. incubating serum obtained from a patient suspected of having aHUS, APS, or HELLP syndrome with a plurality of glycosylphosphatidylinositol-anchored protein (GPI-AP) deficient cells; and b. performing a cell viability assay on the cells from step (a); and c. diagnosing the patient as having aHUS, APS, or HELLP syndrome based on a statistically significant increase of non-viable cells from the patient serum as compared to a healthy control. a. incubating serum obtained from a patient suspected of having aHUS, APS, or HELLP syndrome with a plurality of glycosylphosphatidylinositol-anchored protein (GPI-AP) deficient cells; and b. performing a cell viability assay on the cells from step (a); and c. diagnosing the patient as having aHUS, APS, or HELLP syndrome based on a statistically significant increase of non-viable cells from the patient serum as compared to a healthy control.
Refrigerated cabinet, at least comprising a refrigerating chamber for receiving and storing goods to be refrigerated and a heat exchanger, wherein the refrigerating chamber comprises a bottom tray , and wherein - a fluid line arrangement is arranged under the bottom tray , - at least one heat transfer unit rests on the bottom tray , - the at least one heat transfer unit comprises a plurality of heat transfer elements which are in contact with the bottom tray and form air ducts , - the at least one heat transfer unit comprises an element connecting the heat transfer elements, - the fluid line arrangement extends substantially over the entire surface of the bottom tray , - the fluid line arrangement and the at least one heat transfer unit extend substantially over the same surface, - the at least one heat transfer unit is removable, - the heat transfer elements are hollow profile bodies and/or cooling fins which are arranged next to one another, and - the air ducts are formed between adjacent hollow profile bodies , the element connecting the hollow profile bodies and the bottom tray or between the cooling fins, the element connecting the cooling fins and the bottom tray . - a fluid line arrangement is arranged under the bottom tray , - at least one heat transfer unit rests on the bottom tray , - the at least one heat transfer unit comprises a plurality of heat transfer elements which are in contact with the bottom tray and form air ducts , - the at least one heat transfer unit comprises an element connecting the heat transfer elements, - the fluid line arrangement extends substantially over the entire surface of the bottom tray , - the fluid line arrangement and the at least one heat transfer unit extend substantially over the same surface, - the at least one heat transfer unit is removable, - the heat transfer elements are hollow profile bodies and/or cooling fins which are arranged next to one another, and - the air ducts are formed between adjacent hollow profile bodies , the element connecting the hollow profile bodies and the bottom tray or between the cooling fins, the element connecting the cooling fins and the bottom tray .
A railway turnout control method, comprising: constructing a data space corresponding to a railway turnout area; adding a virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11), in the data space, to a turnback area in which a target turnback stopping point is located; adding the virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11) to a railway turnout list corresponding to a route along which a train (a, c,) drives into the turnback area; and not releasing claim of the virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11) when the train stops at the target turnback stopping point. constructing a data space corresponding to a railway turnout area; adding a virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11), in the data space, to a turnback area in which a target turnback stopping point is located; adding the virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11) to a railway turnout list corresponding to a route along which a train (a, c,) drives into the turnback area; and not releasing claim of the virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11) when the train stops at the target turnback stopping point.
A method comprising: sending a fabric packet by a sending processing element to a fabric, the fabric packet comprising a virtual channel specifier and a fabric packet payload ; routing the fabric packet via the fabric from the sending processing element to a receiving processing element via zero or more routing processing elements , the routing in accordance with a particular one of a plurality of virtual channels as specified by the virtual channel specifier and the virtual channel specifier identifies a respective one of a plurality of communication pathways enabled by the fabric; and in the receiving processing element, receiving the fabric packet from the fabric, reading one or more instructions from a memory of the receiving processing element at an address of the memory, the address determined as a function of the virtual channel specifier, and using at least a portion of the fabric packet payload as an input operand to execute at least a particular one of the one or more instructions and wherein the particular instruction specifies an operation and the executing comprises performing the operation using the input operand as an input. sending a fabric packet by a sending processing element to a fabric, the fabric packet comprising a virtual channel specifier and a fabric packet payload ; routing the fabric packet via the fabric from the sending processing element to a receiving processing element via zero or more routing processing elements , the routing in accordance with a particular one of a plurality of virtual channels as specified by the virtual channel specifier and the virtual channel specifier identifies a respective one of a plurality of communication pathways enabled by the fabric; and in the receiving processing element, receiving the fabric packet from the fabric, reading one or more instructions from a memory of the receiving processing element at an address of the memory, the address determined as a function of the virtual channel specifier, and using at least a portion of the fabric packet payload as an input operand to execute at least a particular one of the one or more instructions and wherein the particular instruction specifies an operation and the executing comprises performing the operation using the input operand as an input.
Circuit device for the maximization of the average power provided to a passive diode bridge rectifier that supplies an electric load, by a vibration energy harvester coupled to an external source of vibrations having a determined and arbitrary shape and frequency, wherein said harvester comprises at least a reactive component in its equivalent circuit at the output terminals and wherein the input voltage of the device coincides with the input voltage of the passive diode bridge rectifier connected to the output terminals of the harvester , wherein said device is configured to draw at the output terminals of the harvester a compensation current (i n ) equal and opposite to the current flowing through the reactive component , independently of the vibration frequency and of the time shape of the vibration and independently of the amplitude and of the time shape of the output voltage (V AB ) of the harvester , characterized by further comprising a power circuit composed at least of a first transistor (M p ) and of a second transistor (M n ) connected to each other with the respective drain terminals for adjusting the compensation current (i n ) to the current flowing through the reactive component and a control circuit composed at least of an operational amplifier and a hysteresis comparator for managing the turn on and the turn off of the first and of the second transistor (M p , M n ), wherein the output of the operational amplifier is connected to the positive input terminal of the hysteresis comparator . said device is configured to draw at the output terminals of the harvester a compensation current (i n ) equal and opposite to the current flowing through the reactive component , independently of the vibration frequency and of the time shape of the vibration and independently of the amplitude and of the time shape of the output voltage (V AB ) of the harvester , characterized by further comprising a power circuit composed at least of a first transistor (M p ) and of a second transistor (M n ) connected to each other with the respective drain terminals for adjusting the compensation current (i n ) to the current flowing through the reactive component and a control circuit composed at least of an operational amplifier and a hysteresis comparator for managing the turn on and the turn off of the first and of the second transistor (M p , M n ), wherein the output of the operational amplifier is connected to the positive input terminal of the hysteresis comparator .
Control system with at least one electronic control unit for controlling a combustion engine in a hybrid vehicle, wherein the control unit is designed in such a way that it evaluates input signals for detecting data for identifying a current situation (S0) and for identifying at least one situation (S1, S2) prevailing in the near future with regard to an expected speed curve (v e ) and/or load curve, and that it controls the restarting or shutting off of the combustion engine on the occurrence of a load-related driver interaction (FP; FP-, FP+) in the current situation (S0) independently of a currently specified E-travel speed limit (eV Max,CD , eV Max,CS ) and/or load limit when it identifies a traffic light phase and its duration as a situation (S1) prevailing in the near future, characterized in that the expected speed curve (v e ) is compared with charge-state-dependent fixed or variable maximum E-travel speed limits (eV Max,CD , eV Max,CS ) for purely electric driving (E-mode) in a charged state and in a discharged state.
A method performed by a network element in a first cell (A) for communication in a wireless communications network, the method comprising: in response to a user equipment, UE, indicating that is capable of performing interference mitigation: transmitting a first demodulation reference signal, DMRS, on a first DMRS port; transmitting a first physical downlink shared channel, PDSCH, on the first DMRS port; and transmitting information indicating to the UE that the first DMRS port is used to transmit the first PDSCH, and information about a second DMRS port in a second cell (B); wherein the second DMRS port is not used to transmit the first PDSCH but is used to transmit a second DMRS, and wherein the first DMRS and the second DMRS are orthogonal to one another. in response to a user equipment, UE, indicating that is capable of performing interference mitigation: transmitting a first demodulation reference signal, DMRS, on a first DMRS port; transmitting a first physical downlink shared channel, PDSCH, on the first DMRS port; and transmitting information indicating to the UE that the first DMRS port is used to transmit the first PDSCH, and information about a second DMRS port in a second cell (B);
A display device comprising: a display unit ; a short-range communication unit adapted to communicate with a mobile terminal ; and a control unit adapted to: receive, through the short-range communication unit, a search request signal from the mobile terminal , receive, through the short-range communication unit, a voice signal from the mobile terminal after receiving the search request signal, display, on the display unit , a result searched based on the voice signal, characterized in that the control unit is adapted to: receive a power control command generated based on a preset voice signal while a power of the display device is turned off, turn on the power of the display device in response to the received power control command, and display, on the display unit , a window indicating that voice search is possible according to turning on the power of the display device . a display unit ; a short-range communication unit adapted to communicate with a mobile terminal ; and a control unit adapted to: receive, through the short-range communication unit, a search request signal from the mobile terminal , receive, through the short-range communication unit, a voice signal from the mobile terminal after receiving the search request signal, display, on the display unit , a result searched based on the voice signal, characterized in that the control unit is adapted to: receive a power control command generated based on a preset voice signal while a power of the display device is turned off, turn on the power of the display device in response to the received power control command, and display, on the display unit , a window indicating that voice search is possible according to turning on the power of the display device . receive, through the short-range communication unit, a search request signal from the mobile terminal , receive, through the short-range communication unit, a voice signal from the mobile terminal after receiving the search request signal, display, on the display unit , a result searched based on the voice signal, characterized in that the control unit is adapted to: receive a power control command generated based on a preset voice signal while a power of the display device is turned off, turn on the power of the display device in response to the received power control command, and display, on the display unit , a window indicating that voice search is possible according to turning on the power of the display device . receive a power control command generated based on a preset voice signal while a power of the display device is turned off, turn on the power of the display device in response to the received power control command, and display, on the display unit , a window indicating that voice search is possible according to turning on the power of the display device .
An aquatic sports device comprising a motor-driven watercraft having a vehicle hull , on which at least part of a user's body rests, wherein the aquatic sports device further comprises a water board made of a material that can float on water, wherein the water board has an attachment segment for the articulation of the water board to a watercraft at a front-end area , wherein the water board is articulated to the watercraft wherein the water board has a support area , on which the user rests at least partially, wherein the user rests on the support area with another part of their body , characterized in that the water board has, on its underside, two lateral skids extending along at least part of a longitudinal extension of the water board . wherein the aquatic sports device further comprises a water board made of a material that can float on water, wherein the water board has an attachment segment for the articulation of the water board to a watercraft at a front-end area , wherein the water board is articulated to the watercraft wherein the water board has a support area , on which the user rests at least partially, wherein the user rests on the support area with another part of their body , characterized in that the water board has, on its underside, two lateral skids extending along at least part of a longitudinal extension of the water board .
A peptide comprising the amino acid sequence of any one of SEQ ID NOs: 28-30 or 23 or 27 or 31.
A method for forming a digital value (D) from a clock signal and a digital data signal , wherein the clock signal is sampled to obtain a clock signal digital value sequence, wherein the digital data signal is sampled to obtain a data signal digital value sequence, wherein sampling times are determined from the clock signal digital value sequence, at which sampling times data signal digital values are extracted from the data signal digital value sequence, wherein the digital value (D) is formed from the data signal digital values.
A peptide composed of one amino acid sequence selected from the group consisting of amino acid sequences of SEQ ID NO: 1 and SEQ ID NO: 2 for use in the prevention or treatment of a bone disease selected from the group consisting of osteoporosis, boyhood osteoporosis, osteogenesis imperfecta, osteomalacia, osteonecrosis, rickets, osteomyelitis, alveolar bone loss, Paget's disease of bone, hypercalcemia, primary hyperparathyroidism, metastatic bone diseases, bone marrow, bone loss in rheumatoid arthritis, metastatic bone disease, cancer-related bone loss, fibrous dysplasia, adynamic bone disease, metabolic bone disease and age-related bone mass loss.
Method of controlling a wind turbine having a rotor , in particular in a low rotational speed regime, the method comprising: determining a rotor noise contribution based on an actual rotor operational state ; determining auxiliary noise contributions from plural auxiliary components based on respective actual operational states ; determining a total noise based on the auxiliary noise contributions and the rotor noise contribution ; comparing the total noise with a noise threshold ; adapting a limit value of at least one operational parameter and/or a respective operational state of at least one of the auxiliary components depending on the comparison result, wherein, if less performance of a first auxiliary component is sufficient and/or demanded, the method comprises: decreasing energy supply to the first auxiliary component, thereby decreasing noise of the first auxiliary component; increasing energy supply to a second auxiliary component , thereby increasing noise of the second auxiliary component. determining a rotor noise contribution based on an actual rotor operational state ; determining auxiliary noise contributions from plural auxiliary components based on respective actual operational states ; determining a total noise based on the auxiliary noise contributions and the rotor noise contribution ; comparing the total noise with a noise threshold ; adapting a limit value of at least one operational parameter and/or a respective operational state of at least one of the auxiliary components depending on the comparison result, decreasing energy supply to the first auxiliary component, thereby decreasing noise of the first auxiliary component; increasing energy supply to a second auxiliary component , thereby increasing noise of the second auxiliary component.
A tool adaptor having an adaptor axis (AA) defining an adaptor forward-to-rear direction (DF, DR), and comprising: a front retaining portion having a base jaw , a clamping jaw , and an insert receiving pocket located therebetween, the insert receiving pocket having a lower support surface and an opposing upper clamping surface , and a rear mounting portion located axially rearward of the front retaining portion , the rear mounting portion having an axially rearward facing rear mounting surface and a first fastening bore , wherein: a primary slot separates the base jaw from the clamping jaw and communicates with the insert receiving pocket ; a secondary slot transverse to the primary slot separates the clamping jaw from the rear mounting portion ; characterised in that the first fastening bore has a first bore axis (A1) which intersects the rear mounting surface and the secondary slot . a front retaining portion having a base jaw , a clamping jaw , and an insert receiving pocket located therebetween, the insert receiving pocket having a lower support surface and an opposing upper clamping surface , and a rear mounting portion located axially rearward of the front retaining portion , the rear mounting portion having an axially rearward facing rear mounting surface and a first fastening bore , wherein: a primary slot separates the base jaw from the clamping jaw and communicates with the insert receiving pocket ; a secondary slot transverse to the primary slot separates the clamping jaw from the rear mounting portion ; characterised in that the first fastening bore has a first bore axis (A1) which intersects the rear mounting surface and the secondary slot . a primary slot separates the base jaw from the clamping jaw and communicates with the insert receiving pocket ; a secondary slot transverse to the primary slot separates the clamping jaw from the rear mounting portion ; characterised in that the first fastening bore has a first bore axis (A1) which intersects the rear mounting surface and the secondary slot .