mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode assembly comprising: an electrode for externally defibrillating a subject; a camera included in the electrode assembly, the camera configured to capture an image of at least a portion of the subject's body, the image having sufficient information to enable the position of the electrode assembly relative to the subject's chest to be determined; and one or more indicators (204a, 204b, 204c, 204d and 206) configured to provide feedback to a rescuer about the positioning of the electrode assembly based on a determined position of the electrode assembly. an electrode for externally defibrillating a subject; a camera included in the electrode assembly, the camera configured to capture an image of at least a portion of the subject's body, the image having sufficient information to enable the position of the electrode assembly relative to the subject's chest to be determined; and one or more indicators (204a, 204b, 204c, 204d and 206) configured to provide feedback to a rescuer about the positioning of the electrode assembly based on a determined position of the electrode assembly.
A battery module comprising a front battery (M1) and a rear battery (M2) and a heat sink , the front battery (M1) and the rear battery (M2) being placed in parallel on the side of the heat sink , wherein the area of the heat sink is divided into two halves parts, one of the two halves parts being a front part and the other part being a rear part, wherein the heat sink comprises: - a cooling channel through which a refrigerant suitable for cooling a secondary battery comprising a cell assembly in which at least two unit cells are stacked by an indirect cooling method can pass, - a common inlet and a common outlet provided at the front part, and wherein the cooling channel has one front separated channel for cooling the front battery (M1) and one rear separated channel for cooling the rear battery (M2) fluidly connecting the common inlet to the common outlet , and each separated channel is connected to a branch point , the branch point inducing the refrigerant to flow in each of the two separated channels, characterized in that the heat sink further comprises an insulation material (511-1) interposed between the rear separated channel and the front battery (M1). - a cooling channel through which a refrigerant suitable for cooling a secondary battery comprising a cell assembly in which at least two unit cells are stacked by an indirect cooling method can pass, - a common inlet and a common outlet provided at the front part, and
A pneumatic tool comprising: a drive mechanism which is configured to be driven by compressed air of a first pressure; and a valve mechanism which is configured to be actuated by compressed air of a second pressure, which is higher than an atmospheric pressure and lower than the first pressure, and which is configured to switch whether or not to supply the compressed air of the first pressure to the drive mechanism . a drive mechanism which is configured to be driven by compressed air of a first pressure; and a valve mechanism which is configured to be actuated by compressed air of a second pressure, which is higher than an atmospheric pressure and lower than the first pressure, and which is configured to switch whether or not to supply the compressed air of the first pressure to the drive mechanism .
An apparatus comprising: layers of silicon dioxide ; and an integrated optoelectronic circuit comprising at least an interferometer configured for optical coherence tomography, wherein components of the integrated optoelectronic circuit are formed within the layers of silicon dioxide, the layers of silicon dioxide having different refractive indices through different levels of doping. layers of silicon dioxide ; and an integrated optoelectronic circuit comprising at least an interferometer configured for optical coherence tomography,
Use of a sulphate compound to improve dough strength and/or to decrease dough stickiness of a flour-based dough containing a reduced level of sodium, wherein the dough contains not more than 0.6% of sodium by weight of cereal ingredients selected from the group consisting of flour, whole grains, grain components and mixtures thereof, said use comprising combining flour, water, a sulphate compound and optionally one or more other bakery ingredients including sodium chloride, said use being characterized in that : • the sulphate compound is incorporated in the dough in a concentration of 0.5-75 mmole per kg of flour, with the proviso that if the sulphate compound is not calcium sulphate, said sulphate component is incorporated in the dough in a concentration of at least 5 mmole per kg of flour and with the proviso that if the sulphate compound is calcium sulphate and if said calcium sulphate is incorporated in a concentration of less than 5 mmole per kg of flour, the method additionally comprises the addition of at least 0.1 mmole of an edible acid per kg of flour; • sodium chloride is incorporated in a concentration of 0-1.6% by weight of cereal ingredients selected from the group consisting of flour, whole grains, grain components and mixtures thereof. • the sulphate compound is incorporated in the dough in a concentration of 0.5-75 mmole per kg of flour, with the proviso that if the sulphate compound is not calcium sulphate, said sulphate component is incorporated in the dough in a concentration of at least 5 mmole per kg of flour and with the proviso that if the sulphate compound is calcium sulphate and if said calcium sulphate is incorporated in a concentration of less than 5 mmole per kg of flour, the method additionally comprises the addition of at least 0.1 mmole of an edible acid per kg of flour; • sodium chloride is incorporated in a concentration of 0-1.6% by weight of cereal ingredients selected from the group consisting of flour, whole grains, grain components and mixtures thereof.
An electronic device comprising at least one processor configured to: - obtain an image captured with a camera , - determine a location for a sensor to be installed, wherein said sensor is a motion sensor, - determine a detection zone of said sensor in relation to said image based on said location determined for said sensor , and - display, in real-time or near-real-time, said image and virtual representations of said sensor and said detection zone superimposed over said image, wherein said at least one processor is configured to allow a user to specify or adapt at least one property for said to be installed sensor , said at least one property including at least said location, wherein said at least one processor is configured to: - simulate dynamic input to said motion sensor to generate sensor output, - display a dynamic virtual representation of said dynamic input superimposed over said image by displaying an animation of a virtual character walking through the physical space captured by said image, and - control a virtual lighting device and/or an installed lighting device based on said sensor output. - obtain an image captured with a camera , - determine a location for a sensor to be installed, wherein said sensor is a motion sensor, - determine a detection zone of said sensor in relation to said image based on said location determined for said sensor , and - display, in real-time or near-real-time, said image and virtual representations of said sensor and said detection zone superimposed over said image, wherein said at least one processor is configured to allow a user to specify or adapt at least one property for said to be installed sensor , said at least one property including at least said location, wherein said at least one processor is configured to: - simulate dynamic input to said motion sensor to generate sensor output, - display a dynamic virtual representation of said dynamic input superimposed over said image by displaying an animation of a virtual character walking through the physical space captured by said image, and - control a virtual lighting device and/or an installed lighting device based on said sensor output. - simulate dynamic input to said motion sensor to generate sensor output, - display a dynamic virtual representation of said dynamic input superimposed over said image by displaying an animation of a virtual character walking through the physical space captured by said image, and - control a virtual lighting device and/or an installed lighting device based on said sensor output.
A vehicle system storing an aqueous solution; said vehicle system comprising: a first compartment for storing an aqueous solution (L); a second compartment for storing an aqueous solution (L); a suction line arranged for receiving aqueous solution from the second compartment; a jet pump having a suction inlet , a pressure inlet and an outlet ; a module comprising: a feed pump unit connected for pumping aqueous solution from the first compartment to a feed outlet ; said feed pump unit being further connected for pumping aqueous solution along a flow path from the first compartment through the feed pump unit, through the pressure inlet of the jet pump to the outlet of the jet pump; a first heater ; said suction inlet being connected to said suction line ; said outlet of said jet pump being arranged for returning aqueous solution from the suction inlet and from the pressure inlet to the first compartment, characterized in that the first heater is arranged in a wall delimiting said first compartment and in that the vehicle system further comprises a suction line heating system, configured for heating at least a portion of the suction line, comprising a second heater arranged around a section of the suction line. a first compartment for storing an aqueous solution (L); a second compartment for storing an aqueous solution (L); a suction line arranged for receiving aqueous solution from the second compartment; a jet pump having a suction inlet , a pressure inlet and an outlet ; a module comprising: a feed pump unit connected for pumping aqueous solution from the first compartment to a feed outlet ; said feed pump unit being further connected for pumping aqueous solution along a flow path from the first compartment through the feed pump unit, through the pressure inlet of the jet pump to the outlet of the jet pump; a first heater ; a feed pump unit connected for pumping aqueous solution from the first compartment to a feed outlet ; said feed pump unit being further connected for pumping aqueous solution along a flow path from the first compartment through the feed pump unit, through the pressure inlet of the jet pump to the outlet of the jet pump; a first heater ;
Method for an uninterruptible power supply by means of a rapid standby plant, which contains a reconversion plant, a methanol generation plant (MGP) and a storage system for methanol, deionised water and liquefied CO 2 , as well as a very short term storage (VSTS; 110), whereby the rapid standby plant runs in two operating phases: in a first, fault-free operating phase, a storage phase, the rapid standby plant draws energy from a supply network (Network I) via a rectifier, during which the methanol generation plant (MGP) runs in nominal operation and the reconversion plant runs in hot standby operation; and in a second operating phase, a network failure of a supply network (Network I), the reconversion plant runs in nominal operation and the methanol generation plant (MGP) runs in hot standby operation, with a methanol reformer being connected to the methanol generation plant (MGP) so that a consumer network (Network II) is supplied without interruption by the rapid standby plant via an inverter , characterised in that the rapid standby plant and the very short term storage (VSTS; 110) are connected to an intermediate circuit of an AC/AC converter.
An integrated electrode structure comprising: a catheter shaft comprising a proximal end and a distal end, the catheter shaft defining a catheter shaft longitudinal axis (aa, a'a'); a flexible tip portion located adjacent to the distal end of the catheter shaft and adapted to conform to a tissue, the flexible tip portion comprising a flexible framework formed from a planar substrate; a first inboard arm , second inboard arm , first outboard arm , and second outboard arm , each of the first and second inboard and outboard arms defining a planar top surface and a planar bottom surface, the bottom surface being parallel with the top surface; and a first planar array of microelectrodes (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3) patterned onto each of the top surfaces of the inboard and outboard arms and a second planar array (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3) of microelectrodes patterned onto each of the bottom surfaces of the inboard and outboard arms; wherein the first array of microelectrodes (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3) is parallel with the second array of microelectrodes (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3). a catheter shaft comprising a proximal end and a distal end, the catheter shaft defining a catheter shaft longitudinal axis (aa, a'a'); a flexible tip portion located adjacent to the distal end of the catheter shaft and adapted to conform to a tissue, the flexible tip portion comprising a flexible framework formed from a planar substrate; a first inboard arm , second inboard arm , first outboard arm , and second outboard arm , each of the first and second inboard and outboard arms defining a planar top surface and a planar bottom surface, the bottom surface being parallel with the top surface; and a first planar array of microelectrodes (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3) patterned onto each of the top surfaces of the inboard and outboard arms and a second planar array (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3) of microelectrodes patterned onto each of the bottom surfaces of the inboard and outboard arms; a flexible framework formed from a planar substrate; a first inboard arm , second inboard arm , first outboard arm , and second outboard arm , each of the first and second inboard and outboard arms defining a planar top surface and a planar bottom surface, the bottom surface being parallel with the top surface; and a first planar array of microelectrodes (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3) patterned onto each of the top surfaces of the inboard and outboard arms and a second planar array (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3) of microelectrodes patterned onto each of the bottom surfaces of the inboard and outboard arms; wherein the first array of microelectrodes (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3) is parallel with the second array of microelectrodes (102, 146-1, 146-2, 146-3, 163-1, 163-2, 163-3).
A functionalized renewed rubber composition which is characterized by being comprised of an elastomeric polymer and a stabilizer; wherein the rubber composition has a crosslink density which is within the range of 0.05 ×10 -5 mole/g to 2.0 ×10 -5 mole/g, wherein the rubber composition has a solubility fraction of less than 90 percent, and wherein the stabilizer is a vulcanization retarder.
A method for wireless communication, comprising: identifying a discrete Fourier transform, DFT, configuration for a plurality of DFT-precoded symbols; receiving the plurality of DFT-precoded symbols via a corresponding plurality of subcarriers within a wireless signal and additional non-DFT-precoded reference symbols via additional subcarriers within the wireless signal, the plurality of subcarriers including at least a subset of subcarriers that are adjacent in frequency; processing the plurality of DFT-precoded symbols by a DFT module and by several inverse DFT, IDFT, modules (410-a, 410-b, 410-c) to obtain time domain symbols corresponding to the DFT-precoded symbols and processing the additional non-DFT-precoded reference symbols by the DFT module to obtain frequency domain representations corresponding to the non-DFT-precoded symbols; estimating a phase error based at least in part on the plurality of DFT-precoded symbols and the DFT configuration by comparing the plurality of time domain symbols corresponding to the DFT-precoded symbols with a corresponding plurality of reference symbols in the time domain; and applying a phase correction based at least in part on the phase error to the frequency domain representations corresponding to the non-DFT-precoded symbols. identifying a discrete Fourier transform, DFT, configuration for a plurality of DFT-precoded symbols; receiving the plurality of DFT-precoded symbols via a corresponding plurality of subcarriers within a wireless signal and additional non-DFT-precoded reference symbols via additional subcarriers within the wireless signal, the plurality of subcarriers including at least a subset of subcarriers that are adjacent in frequency; processing the plurality of DFT-precoded symbols by a DFT module and by several inverse DFT, IDFT, modules (410-a, 410-b, 410-c) to obtain time domain symbols corresponding to the DFT-precoded symbols and processing the additional non-DFT-precoded reference symbols by the DFT module to obtain frequency domain representations corresponding to the non-DFT-precoded symbols; estimating a phase error based at least in part on the plurality of DFT-precoded symbols and the DFT configuration by comparing the plurality of time domain symbols corresponding to the DFT-precoded symbols with a corresponding plurality of reference symbols in the time domain; and applying a phase correction based at least in part on the phase error to the frequency domain representations corresponding to the non-DFT-precoded symbols.
A compound of the following Formula 1, or a pharmaceutically acceptable salt or stereoisomer thereof: in the Formula 1, R 1 is azetidinyl or pyrrolidinyl and can be substituted with C1-C3 alkyl, R 2 is trifluoromethyl, R 3 represents -(CH 2 ) m CO 2 H, m is an integer of 0 to 2, and X represents N or C-CN. R 1 is azetidinyl or pyrrolidinyl and can be substituted with C1-C3 alkyl, R 2 is trifluoromethyl, R 3 represents -(CH 2 ) m CO 2 H, m is an integer of 0 to 2, and X represents N or C-CN.
An apparatus of User Equipment, UE , configured for device-to-device, D2D, communication, the apparatus comprising: transceiver circuitry configured to: receive a first symbol and a second symbol from a second UE over a link, the first symbol indicating data to be sent and the second symbol indicating a link weight for the link; and receive a plurality of wideband symbols from a plurality of UEs including the second UE , the plurality of wideband symbols having signal strengths and interference levels; and processing circuitry configured to: determine a channel gain for the link based on predetermined transmission power and a received transmission power of the second symbol over the link; and determine whether the predetermined transmission power is to be changed based on a comparison of the link weight for the link and the channel gain for the link to the signal strengths and the interference levels of the plurality of wideband symbols, wherein the first and second symbols are sent by the second UE at the predetermined transmission power, and wherein the processing circuitry is configured to determine whether the predetermined transmission power is to be changed based on the comparison that includes using a gradient function. receive a first symbol and a second symbol from a second UE over a link, the first symbol indicating data to be sent and the second symbol indicating a link weight for the link; and receive a plurality of wideband symbols from a plurality of UEs including the second UE , the plurality of wideband symbols having signal strengths and interference levels; and processing circuitry configured to: determine a channel gain for the link based on predetermined transmission power and a received transmission power of the second symbol over the link; and determine whether the predetermined transmission power is to be changed based on a comparison of the link weight for the link and the channel gain for the link to the signal strengths and the interference levels of the plurality of wideband symbols, wherein the first and second symbols are sent by the second UE at the predetermined transmission power, and wherein the processing circuitry is configured to determine whether the predetermined transmission power is to be changed based on the comparison that includes using a gradient function. determine a channel gain for the link based on predetermined transmission power and a received transmission power of the second symbol over the link; and determine whether the predetermined transmission power is to be changed based on a comparison of the link weight for the link and the channel gain for the link to the signal strengths and the interference levels of the plurality of wideband symbols, wherein the first and second symbols are sent by the second UE at the predetermined transmission power, and wherein the processing circuitry is configured to determine whether the predetermined transmission power is to be changed based on the comparison that includes using a gradient function.
A method of rendering adaptive audio, comprising: receiving an input audio bitstream comprising audio components and associated metadata, the audio components each having an audio type selected from: channel-based audio, audio objects, and dynamic objects; determining a decoder format for each audio component based on the respective audio type; determining a priority of each audio component from a priority field in the metadata associated with each audio component; characterized by : rendering the channel-based audio, the audio objects, and low-priority dynamic objects in a first rendering processor; and rendering high-priority dynamic objects in a second rendering processor, wherein the channel-based audio comprises surround-sound audio beds, the audio objects comprise objects conforming to an intermediate spatial format (ISF), and the low and high-priority dynamic objects comprise objects conforming to an object audio metadata (OAMD) format, wherein the low-priority dynamic objects and high-priority dynamic objects are differentiated by a priority threshold value, and wherein the priority threshold value is defined by one of: an author of audio content comprising the input audio or a user selected value. receiving an input audio bitstream comprising audio components and associated metadata, the audio components each having an audio type selected from: channel-based audio, audio objects, and dynamic objects; determining a decoder format for each audio component based on the respective audio type; determining a priority of each audio component from a priority field in the metadata associated with each audio component; characterized by : rendering the channel-based audio, the audio objects, and low-priority dynamic objects in a first rendering processor; and rendering high-priority dynamic objects in a second rendering processor, rendering the channel-based audio, the audio objects, and low-priority dynamic objects in a first rendering processor; and rendering high-priority dynamic objects in a second rendering processor, wherein the channel-based audio comprises surround-sound audio beds, the audio objects comprise objects conforming to an intermediate spatial format (ISF), and the low and high-priority dynamic objects comprise objects conforming to an object audio metadata (OAMD) format, wherein the low-priority dynamic objects and high-priority dynamic objects are differentiated by a priority threshold value, and wherein the priority threshold value is defined by one of: an author of audio content comprising the input audio or a user selected value.