mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining the hematocrit level and/or the hemoglobin level of a fluid circulating in a tubular portion , comprising: - the emission of light beams in the direction of the tubular portion with at least two light sources (11; 21), each of the two light sources (11; 21) being configured to emit light beams according to an emission wavelength chosen to correspond to an isosbestic point of hemoglobin; - the receipt of light signals transmitted through the tubular portion with at least two light sensors (12; 22), each light sensor (12; 22) being associated with one of the two light sources (11; 21); - the calculation of the hematocrit level and/or the hemoglobin level of the fluid by a processing of the light signals received by the light sensors (12; 22); characterized in that the emission power of at least one of the light sources (11; 21) is modified during the determination of the hematocrit level and/or the hemoglobin level as a function of the hematocrit level and/or of the hemoglobin level respectively calculated for the fluid. - the emission of light beams in the direction of the tubular portion with at least two light sources (11; 21), each of the two light sources (11; 21) being configured to emit light beams according to an emission wavelength chosen to correspond to an isosbestic point of hemoglobin; - the receipt of light signals transmitted through the tubular portion with at least two light sensors (12; 22), each light sensor (12; 22) being associated with one of the two light sources (11; 21); - the calculation of the hematocrit level and/or the hemoglobin level of the fluid by a processing of the light signals received by the light sensors (12; 22);
Encoder for deriving a representation of an audio signal having a first frame, a second frame following the first frame, and a third frame following the second frame, the encoder comprising: a warp estimator for estimating a first warp parameter sequence for the first and the second frame and for estimating a second warp parameter sequence for the second frame and the third frame, wherein each warp parameter of the first and the second warp parameter sequences describes a finite length interval of the audio signal; a spectral analyzer for deriving first spectral coefficients for the first and the second frame using the first warp parameter sequence and for deriving second spectral coefficients for the second and the third frame using the second warp parameter sequence; a perceptual model calculator for receiving the audio signal, wherein the audio signal is a multi-channel audio signal; a warp coder for encoding the first warp parameter sequence and the second warp parameter sequence; an encoder , controlled by the perceptual model calculator , for receiving the first spectral coefficients for quantization to obtain encoded first spectral coefficients and for receiving the second spectral coefficients for quantization to obtain encoded second spectral coefficients; and an output interface for outputting the representation of the audio signal including the encoded first warp parameter sequence, the encoded second warp parameter sequence, the encoded first spectral coefficients, and the encoded second spectral coefficients. a warp estimator for estimating a first warp parameter sequence for the first and the second frame and for estimating a second warp parameter sequence for the second frame and the third frame, wherein each warp parameter of the first and the second warp parameter sequences describes a finite length interval of the audio signal; a spectral analyzer for deriving first spectral coefficients for the first and the second frame using the first warp parameter sequence and for deriving second spectral coefficients for the second and the third frame using the second warp parameter sequence; a perceptual model calculator for receiving the audio signal, wherein the audio signal is a multi-channel audio signal; a warp coder for encoding the first warp parameter sequence and the second warp parameter sequence; an encoder , controlled by the perceptual model calculator , for receiving the first spectral coefficients for quantization to obtain encoded first spectral coefficients and for receiving the second spectral coefficients for quantization to obtain encoded second spectral coefficients; and an output interface for outputting the representation of the audio signal including the encoded first warp parameter sequence, the encoded second warp parameter sequence, the encoded first spectral coefficients, and the encoded second spectral coefficients.
A method for prefixing substrates , wherein at least one substrate surface of the substrates is amorphized in at least one surface area, wherein the substrates are aligned and then brought into contact at the amorphized surface areas and prefixed solely at partial areas, characterized in that local application of force is used to achieve equivalent pressure for spontaneous bonds in the partial areas and thus to prefix the substrates .
A blocker door assembly for use in a gas turbine engine, said blocker door assembly comprising: a facesheet , wherein said facesheet comprises a plurality of openings to facilitate noise attenuation; and a body portion coupled to said facesheet, wherein said body portion comprises a backsheet integrally formed with a honeycomb core , wherein said body portion is molded from a thermoplastic material; and wherein said body portion comprises a plurality of mounting structures integrally formed with said backsheet and said honeycomb core . a facesheet , wherein said facesheet comprises a plurality of openings to facilitate noise attenuation; and a body portion coupled to said facesheet, wherein said body portion comprises a backsheet integrally formed with a honeycomb core , wherein said body portion is molded from a thermoplastic material; and wherein said body portion comprises a plurality of mounting structures integrally formed with said backsheet and said honeycomb core .
Electromagnetically operable brake assembly, comprising - an armature disc , - a shaft - a coil winding and - a coil core , wherein, on its side facing the coil core , the armature disc has damping rings , the external diameter of which is smaller than the radial distance from the shaft axis of the shaft to be braked by the brake assembly, wherein one or more spacers are arranged on the armature disc , in particular are connected to the armature disc in an interlocking and/or frictional manner, characterised in that each spacer , in particular each leg portion, has a projection that protrudes at least partly into a respective recess, in particular a blind hole, in the armature disc . - an armature disc , - a shaft - a coil winding and - a coil core ,
A movable charging apparatus comprising a housing for receiving a power converting module , characterized in that said movable charging apparatus comprising: a first storage portion , located at a first side of said housing , for receiving a power cable which being coupled between said power converting module and an outside AC source; a second storage portion , located at a second side of said housing , for receiving a charging cable which being coupled to said power converting module and an outside electric car; plurality of wheels , located at a bottom of said housing characterised by a control unit ; said power converting module , coupled to said control unit ; a circuit breaker , coupled to said power converting module ; and a metering module , coupled to said circuit breaker , calculating fee-charging based on usage of power and modifying or varying fee-charging standard according with an energy policy being varying from country to country. a first storage portion , located at a first side of said housing , for receiving a power cable which being coupled between said power converting module and an outside AC source; a second storage portion , located at a second side of said housing , for receiving a charging cable which being coupled to said power converting module and an outside electric car; plurality of wheels , located at a bottom of said housing characterised by a control unit ; said power converting module , coupled to said control unit ; a circuit breaker , coupled to said power converting module ; and a metering module , coupled to said circuit breaker , calculating fee-charging based on usage of power and modifying or varying fee-charging standard according with an energy policy being varying from country to country.
A method of testing a gas, comprising: providing a sensor comprising a sensing electrode that includes a catalyst comprising palladium, a counter electrode comprising a metal catalyst, an electrolyte disposed between the sensing electrode and the counter electrode , and an electrical circuit connecting the sensing electrode and the counter electrode ; contacting the gas with the sensing electrode in the absence of a voltage bias applied to the sensing and counter electrodes; and detecting a capacitive response produced by the exposure of the sensing electrode to the gas; wherein the gas comprises a hydrofluoroolefin. providing a sensor comprising a sensing electrode that includes a catalyst comprising palladium, a counter electrode comprising a metal catalyst, an electrolyte disposed between the sensing electrode and the counter electrode , and an electrical circuit connecting the sensing electrode and the counter electrode ; contacting the gas with the sensing electrode in the absence of a voltage bias applied to the sensing and counter electrodes; and detecting a capacitive response produced by the exposure of the sensing electrode to the gas; wherein the gas comprises a hydrofluoroolefin.
Computer-implemented method for creating dynamic models of network nodes in a low and/or medium voltage distribution network, suitable for use in a network operating management system for electrical power distribution, wherein with at least one distributed unit for recording and storing measurement values, time series of power-related measurement values which relate to at least one specified network node, which preferably acts as a transfer point from medium voltage to low voltage, are captured and stored, wherein a dynamic model for the power profile and/or the reactive power profile of the related network node/s is created by the unit for measurement value recording and storage on the basis of these time series by means of a self-learning algorithm, and that an influence of a plurality of network nodes on the specified network nodes, from which corresponding time series are respectively present, is specified for creating the dynamic model for a specified network node, which has a special or important task in the low and/or medium voltage distribution network, characterised in that the time series contain measurement values which include voltage jumps.
A method performed by a secondary node, SN, in a dual connectivity, DC, in a wireless communication system, the method comprising, configuring (S1202, S1204), for a wireless device, a split bearer for both a master cell group, MCG, transmission and a secondary cell group, SCG, transmission with a master node, MN, in the DC; maintaining (S1208) the SCG transmission of the split bearer and receiving (S1208) a first RRC message from the wireless device through the SCG transmission, while the MCG transmission of the split bearer for the MN is suspended upon a MCG failure; and transmitting (S1212), to the wireless device through the SCG transmission, a second RRC message for resuming the MCG transmission of the split bearer, wherein the split bearer is served by all of (i) a Packet Data Convergence Protocol, PDCP, entity for the MN, (ii) a first Radio Link Control, RLC, entity for the MN, (iii) a second RLC entity for the SN, (iv) a first Medium Access Control, MAC, entity for the MN, and (v) a second MAC entity for the SN. configuring (S1202, S1204), for a wireless device, a split bearer for both a master cell group, MCG, transmission and a secondary cell group, SCG, transmission with a master node, MN, in the DC; maintaining (S1208) the SCG transmission of the split bearer and receiving (S1208) a first RRC message from the wireless device through the SCG transmission, while the MCG transmission of the split bearer for the MN is suspended upon a MCG failure; and transmitting (S1212), to the wireless device through the SCG transmission, a second RRC message for resuming the MCG transmission of the split bearer, wherein the split bearer is served by all of (i) a Packet Data Convergence Protocol, PDCP, entity for the MN, (ii) a first Radio Link Control, RLC, entity for the MN, (iii) a second RLC entity for the SN, (iv) a first Medium Access Control, MAC, entity for the MN, and (v) a second MAC entity for the SN.
A wireless device operable to: determine one of a plurality of time-domain resource allocation tables based on first information received from a network node, wherein a time-domain resource allocation table comprises a plurality of entries corresponding to a respective time-domain resource allocation and different combinations of starting orthogonal frequency division multiplexing, OFDM, symbol position and duration in OFDM symbols for the time-domain resource allocation; and determine a time-domain resource allocated to the wireless device for transmission or reception of a wireless signal based on the determined one of the plurality of time-domain resource allocation tables and second information received from the network node different from the first information, the second information indicating which of the plurality of entries of the determined one of the plurality of time-domain resource allocation tables to use to determine the time-domain resource allocated to the wireless device. determine one of a plurality of time-domain resource allocation tables based on first information received from a network node, wherein a time-domain resource allocation table comprises a plurality of entries corresponding to a respective time-domain resource allocation and different combinations of starting orthogonal frequency division multiplexing, OFDM, symbol position and duration in OFDM symbols for the time-domain resource allocation; and determine a time-domain resource allocated to the wireless device for transmission or reception of a wireless signal based on the determined one of the plurality of time-domain resource allocation tables and second information received from the network node different from the first information, the second information indicating which of the plurality of entries of the determined one of the plurality of time-domain resource allocation tables to use to determine the time-domain resource allocated to the wireless device.
An organic light emitting display panel, comprising: a first electrode (ED1); a second electrode (ED2) on the first electrode (ED1); an organic layer (OL) disposed between the first electrode (ED1)and the second electrode (ED2) and including a light emitting layer; an organic cover layer (MN) on the second electrode (ED2); a lower layer (LL) disposed between the organic cover layer (MN) and the second electrode (ED2) and including a first layer (IL1), a second layer (IL2), and a third layer (IL3), the first to third layers (IL1, IL2, IL3) being different from each other and sequentially stacked; and an upper layer (UL) on the organic cover layer (MN), and wherein the first layer (IL1) is configured to contact the second electrode (ED2), and wherein each of the second layer (IL2) and the third layer (IL3) includes a silicon compound, and wherein an optical path of the second layer (IL2) is defined by a product of a refractive index of the second layer (IL2) and the thickness of the second layer (IL2), wherein the optical path of the second layer (IL2) is from 280Å to 900Å, characterized in that the lower layer (LL) further includes a fourth layer (IL4) between the third layer (IL3) and the organic cover layer (MN) and in contact with the third layer (IL3), the fourth layer (IL4) includes a silicon compound, the fourth layer (IL4) has higher oxygen content than the third layer (IL3), and the third layer (IL3) and the fourth layer (IL4) include silicon oxynitride. a first electrode (ED1); a second electrode (ED2) on the first electrode (ED1); an organic layer (OL) disposed between the first electrode (ED1)and the second electrode (ED2) and including a light emitting layer; an organic cover layer (MN) on the second electrode (ED2); a lower layer (LL) disposed between the organic cover layer (MN) and the second electrode (ED2) and including a first layer (IL1), a second layer (IL2), and a third layer (IL3), the first to third layers (IL1, IL2, IL3) being different from each other and sequentially stacked; and an upper layer (UL) on the organic cover layer (MN), and wherein the first layer (IL1) is configured to contact the second electrode (ED2), and wherein each of the second layer (IL2) and the third layer (IL3) includes a silicon compound, and wherein an optical path of the second layer (IL2) is defined by a product of a refractive index of the second layer (IL2) and the thickness of the second layer (IL2), wherein the optical path of the second layer (IL2) is from 280Å to 900Å, characterized in that the lower layer (LL) further includes a fourth layer (IL4) between the third layer (IL3) and the organic cover layer (MN) and in contact with the third layer (IL3), the fourth layer (IL4) includes a silicon compound, the fourth layer (IL4) has higher oxygen content than the third layer (IL3), and the third layer (IL3) and the fourth layer (IL4) include silicon oxynitride.
A method of making a polymer foam article, the method comprising: heating and mixing a thermoplastic polymer and a pneumatogen source in an extruder under a pressure to form a molten pneumatic mixture, wherein the temperature of the molten pneumatic mixture exceeds the critical temperature of the pneumatogen source; collecting an amount of the molten pneumatic mixture in a collection region of the extruder; defining an expansion volume in the collection region to cause a pressure to drop in the collection region; allowing an expansion period of time to elapse after the defining; dispensing a molten polymer foam from the collection region to substantially fill a mold; and cooling the dispensed molten polymer foam to form a solidified polymer foam article. heating and mixing a thermoplastic polymer and a pneumatogen source in an extruder under a pressure to form a molten pneumatic mixture, wherein the temperature of the molten pneumatic mixture exceeds the critical temperature of the pneumatogen source; collecting an amount of the molten pneumatic mixture in a collection region of the extruder; defining an expansion volume in the collection region to cause a pressure to drop in the collection region; allowing an expansion period of time to elapse after the defining; dispensing a molten polymer foam from the collection region to substantially fill a mold; and cooling the dispensed molten polymer foam to form a solidified polymer foam article.
Apparatus for the assessment of electrophysiological signals obtained from a patient, the apparatus comprising: - a housing ; - a support arch pivotally mounted to the housing , the support arch comprising a plurality of facial contact point supports for supporting contact points on the face of the patient relative to the support arch without supporting the chin of the patient; - a first display screen for presenting a first stimulus to a first eye of the patient and a second display screen for presenting a second stimulus to a second eye of the patient, said display screens being movable relative to the support arch ; and - control electronics disposed within the housing for driving the first display screen and the second display screen and for amplifying electrophysiological signals obtained from the patient characterized in that the apparatus comprises a first electrode for detecting a first electrophysiological signal elicited in the first eye of the patient and a second electrode for detecting a second electrophysiological signal elicited in the second eye of the patient, the first electrode and second electrode being mountable to a respective eye of the patient, wherein the control electronics are configured to use the first electrode as the active electrode when the first eye is stimulated by the first display screen and to use the second electrode as the reference electrode when the first eye is stimulated by the first display screen . - a housing ; - a support arch pivotally mounted to the housing , the support arch comprising a plurality of facial contact point supports for supporting contact points on the face of the patient relative to the support arch without supporting the chin of the patient; - a first display screen for presenting a first stimulus to a first eye of the patient and a second display screen for presenting a second stimulus to a second eye of the patient, said display screens being movable relative to the support arch ; and - control electronics disposed within the housing for driving the first display screen and the second display screen and for amplifying electrophysiological signals obtained from the patient
Machine for producing cosmetic or medicinal products such as stick products, comprising: - a plurality of moulds ; - a pouring station arranged for pouring fluid material into each of the moulds; - a de-moulding station arranged for extracting the solidified content from the moulds ; - a continuous conveyor arranged for conveying the plurality of moulds from the pouring station to the de-moulding station and/or vice-versa; - a heating system arranged for heating the moulds or keep them at a temperature greater than that outside of the machine itself, while such moulds are conveyed from the de-moulding station to or towards the pouring station ; - a cooling system arranged for bringing or keeping the moulds at a temperature lower than the temperature which they have or the temperature existing at the pouring station, while such moulds are conveyed from the pouring station towards the demoulding station; wherein: - the continuous conveyor is arranged for moving the plurality of moulds along a non-circular path; - at least part of the moulds are made of a material selected from the following group: an elastomeric or rubbery material, a silicone-based material; and further comprising a plurality of thermal separation walls arranged for thermally insulating from one another a plurality of sections of the path followed by the molds moved by the conveyor. - a plurality of moulds ; - a pouring station arranged for pouring fluid material into each of the moulds; - a de-moulding station arranged for extracting the solidified content from the moulds ; - a continuous conveyor arranged for conveying the plurality of moulds from the pouring station to the de-moulding station and/or vice-versa; - a heating system arranged for heating the moulds or keep them at a temperature greater than that outside of the machine itself, while such moulds are conveyed from the de-moulding station to or towards the pouring station ; - a cooling system arranged for bringing or keeping the moulds at a temperature lower than the temperature which they have or the temperature existing at the pouring station, while such moulds are conveyed from the pouring station towards the demoulding station; - the continuous conveyor is arranged for moving the plurality of moulds along a non-circular path; - at least part of the moulds are made of a material selected from the following group: an elastomeric or rubbery material, a silicone-based material; and further comprising a plurality of thermal separation walls arranged for thermally insulating from one another a plurality of sections of the path followed by the molds moved by the conveyor.