mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-readable storage medium including instructions, which when executed by a computer, cause the computer to perform operations comprising: receiving a digital image; detecting three or more faces in the digital image; and automatically cropping the digital image to areas of interest; characterized in that for each particular face in the three or more faces , determining an emotion displayed by the particular face; clustering the three or more faces into two or more clusters, each particular cluster comprising faces displaying emotions that are similar as determined by utilizing a coding scheme to code facial expressions and then determining emotions by inputting said facial expressions into a Bayesian network and that are within a predetermined proximity of each other; selecting a cluster of the two or more clusters by utilizing a facial recognition matching algorithm that determines a match between a face in the two or more clusters and stored images from an image storage of a user and outputting locations of the detected faces within said selected cluster as the areas of interest. receiving a digital image; detecting three or more faces in the digital image; and automatically cropping the digital image to areas of interest; characterized in that for each particular face in the three or more faces , determining an emotion displayed by the particular face; clustering the three or more faces into two or more clusters, each particular cluster comprising faces displaying emotions that are similar as determined by utilizing a coding scheme to code facial expressions and then determining emotions by inputting said facial expressions into a Bayesian network and that are within a predetermined proximity of each other; selecting a cluster of the two or more clusters by utilizing a facial recognition matching algorithm that determines a match between a face in the two or more clusters and stored images from an image storage of a user and outputting locations of the detected faces within said selected cluster as the areas of interest.
A method comprising: receiving sound signals with a microphone array of a collaboration endpoint , wherein the microphone array includes one or more front-facing microphones disposed on a front surface of the collaboration endpoint and a plurality of secondary microphones (114 , 114 , 114 ) disposed on a second surface of the collaboration endpoint , wherein the front surface of the collaboration endpoint is substantially orthogonal to the second surface of the collaboration endpoint , such that the plurality of secondary microphones (114 , 114 , 114 ) are top-facing or bottom-facing; converting the sound signals received at each of the one or more front-facing microphones and the plurality of secondary microphones (114 , 114 , 114 ) into microphone signals; high pass filtering, based on a predetermined threshold frequency, the microphone signals generated by the one or more front-facing microphones to generate high-pass filtered front-facing signals ; generating, using a beamforming technique, a beamformer signal from the microphone signals generated by the one or more front-facing microphones and the microphone signals generated by the plurality of secondary microphones (114 , 114 , 114 ); low pass filtering the beamformer signal based on the predetermined threshold frequency to remove frequency components at or above the threshold frequency to generate a low-pass filtered beamformer signal ; and combining the low-pass filtered beamformer signal and the high-pass filtered front-facing signals to form an output signal . receiving sound signals with a microphone array of a collaboration endpoint , wherein the microphone array includes one or more front-facing microphones disposed on a front surface of the collaboration endpoint and a plurality of secondary microphones (114 , 114 , 114 ) disposed on a second surface of the collaboration endpoint , wherein the front surface of the collaboration endpoint is substantially orthogonal to the second surface of the collaboration endpoint , such that the plurality of secondary microphones (114 , 114 , 114 ) are top-facing or bottom-facing; converting the sound signals received at each of the one or more front-facing microphones and the plurality of secondary microphones (114 , 114 , 114 ) into microphone signals; high pass filtering, based on a predetermined threshold frequency, the microphone signals generated by the one or more front-facing microphones to generate high-pass filtered front-facing signals ; generating, using a beamforming technique, a beamformer signal from the microphone signals generated by the one or more front-facing microphones and the microphone signals generated by the plurality of secondary microphones (114 , 114 , 114 ); low pass filtering the beamformer signal based on the predetermined threshold frequency to remove frequency components at or above the threshold frequency to generate a low-pass filtered beamformer signal ; and combining the low-pass filtered beamformer signal and the high-pass filtered front-facing signals to form an output signal .
A method of receiving a short transmission time interval, sTTI,-based downlink, DL, signal by a user equipment, UE, in a wireless communication system, the method comprising: receiving a cell specific reference signal, CRS, and a demodulation reference signal, DMRS, for a DL channel; receiving a channel state information reference signal, CSI-RS, with the DMRS; and demodulating the DL channel using the DMRS, wherein a first frequency shifted pattern for the DMRS is determined not to overlap with resource elements for the CRS based on legacy resource elements for the DMRS colliding the resource elements for the CRS in a first corresponding sTTI, wherein a second frequency shifted pattern for the DMRS is determined not to overlap with resource elements for the CSI-RS based on the legacy resource elements for the DMRS colliding the resource elements for the CSI-RS in a second corresponding sTTI, wherein the first frequency shifted pattern is determined based on a frequency shift value corresponding to a cell identity, and wherein the second frequency shifted pattern is determined based on a configuration of the resource elements for the CSI-RS. receiving a cell specific reference signal, CRS, and a demodulation reference signal, DMRS, for a DL channel; receiving a channel state information reference signal, CSI-RS, with the DMRS; and demodulating the DL channel using the DMRS, wherein a first frequency shifted pattern for the DMRS is determined not to overlap with resource elements for the CRS based on legacy resource elements for the DMRS colliding the resource elements for the CRS in a first corresponding sTTI, wherein a second frequency shifted pattern for the DMRS is determined not to overlap with resource elements for the CSI-RS based on the legacy resource elements for the DMRS colliding the resource elements for the CSI-RS in a second corresponding sTTI, wherein the first frequency shifted pattern is determined based on a frequency shift value corresponding to a cell identity, and wherein the second frequency shifted pattern is determined based on a configuration of the resource elements for the CSI-RS.
A panic pressure bar for actuating a lock comprising a housing and at least one swivelling lever arranged therein, wherein the housing is composed of an upper part configured as activation handle and a lower part , wherein the swivelling lever is arranged between the upper part and the housing such that the upper part can be moved with respect to the lower part and wherein a damping element dampens the swivel movement of the swivelling lever , characterized in that the damping element dampens a linear movement of a connecting element , via which the swivel movement of the swivelling lever is converted into a linear movement for actuating the lock, in a rotatory movement in the damping element and that a slider is connected to the connecting element , wherein a linear movement of the slider can be converted into a rotatory movement of a connecting element which engages in a follower of the lock.
A porous current collector, which is provided adjacent to a fuel electrode of a fuel cell that includes a solid electrolyte layer , the fuel electrode disposed on one side of the solid electrolyte layer , and an air electrode disposed on the other side, comprising a porous metal body and a first catalyst , wherein: the porous metal body has an alloy layer at least on a surface thereof, the alloy layer containing nickel (Ni) and tin (Sn); and the first catalyst is supported on a surface of the alloy layer , the surface facing pores of the porous metal body , and is capable of processing a carbon component contained in a fuel gas that flows inside the pores , characterised in that the first catalyst is composed of one or two or more components containing silver (Ag) or platinum (Pt), and part of the catalyst is dissolved in the alloy layer , wherein a second catalyst selected from nickel (Ni), a nickel (Ni)-tin (Sn) alloy, and a nickel (Ni)-tin (Sn)-chromium (Cr) alloy is supported on the surface of the alloy layer facing the pores of the porous metal body . the porous metal body has an alloy layer at least on a surface thereof, the alloy layer containing nickel (Ni) and tin (Sn); and the first catalyst is supported on a surface of the alloy layer , the surface facing pores of the porous metal body , and is capable of processing a carbon component contained in a fuel gas that flows inside the pores ,
A scissor gear oil supplying structure comprising: an engine main body ; a shaft extending from an inside of the engine main body ; a scissor gear that is provided on an outer circumference of a tip end portion of the shaft ; a first oil passage that is formed on a central axis of the shaft and extends toward the front in the shaft in an extending direction from the inside of the engine main body ; a second oil passage that is formed and extends from the first oil passage in a radial direction and communicates with the scissor gear ; an extension hole that is formed to extend toward the front from the first oil passage on the shaft and is opened at a front end surface of the shaft ; a female screw that is formed in the first oil passage on a rear side of the second oil passage ; a rotating member that is arranged on the shaft on a front side of the scissor gear ; and a bolt that is inserted into the extension hole and the first oil passage to fasten the rotating member to the shaft and is screwed into the female screw , wherein lubricating oil from the engine main body is guided from the first oil passage to the second oil passage along a gap between thread grooves of the female screw and thread ridges of the bolt , wherein the gap is formed in a helical shape along the thread grooves . an engine main body ; a shaft extending from an inside of the engine main body ; a scissor gear that is provided on an outer circumference of a tip end portion of the shaft ; a first oil passage that is formed on a central axis of the shaft and extends toward the front in the shaft in an extending direction from the inside of the engine main body ; a second oil passage that is formed and extends from the first oil passage in a radial direction and communicates with the scissor gear ; an extension hole that is formed to extend toward the front from the first oil passage on the shaft and is opened at a front end surface of the shaft ; a female screw that is formed in the first oil passage on a rear side of the second oil passage ; a rotating member that is arranged on the shaft on a front side of the scissor gear ; and a bolt that is inserted into the extension hole and the first oil passage to fasten the rotating member to the shaft and is screwed into the female screw , wherein lubricating oil from the engine main body is guided from the first oil passage to the second oil passage along a gap between thread grooves of the female screw and thread ridges of the bolt , wherein the gap is formed in a helical shape along the thread grooves .
An all-solid secondary battery comprising a positive electrode, a negative electrode and a solid electrolyte layer positioned between the positive electrode and the negative electrode, characterised in that the solid electrolyte layer comprises an additive in a range of 1 to 10 mass % relative to the solid electrolyte layer, wherein the additive comprises a polyalkylene carbonate, wherein the polyalkylene carbonate has an alkylene carbonate moiety (II) represented by general formula (II): (In the formula (II), R 1 is a chain alkylene group having 1 to 10 carbon atoms or a cycloalkylene group having 3 to 10 carbon atoms.) and optionally an alkylene glycol moiety (III) represented by general formula (III): (In the formula (III), R 2 is a chain alkylene group having 1 to 10 carbon atoms or a cycloalkylene group having 3 to 10 carbon atoms, m is 0, 1 or 2 and each of R 2 in the alkylene glycol moiety (III) is the same or different.). characterised in that the solid electrolyte layer comprises an additive in a range of 1 to 10 mass % relative to the solid electrolyte layer, wherein the additive comprises a polyalkylene carbonate, wherein the polyalkylene carbonate has an alkylene carbonate moiety (II) represented by general formula (II): (In the formula (II), R 1 is a chain alkylene group having 1 to 10 carbon atoms or a cycloalkylene group having 3 to 10 carbon atoms.) and optionally an alkylene glycol moiety (III) represented by general formula (III): (In the formula (III), R 2 is a chain alkylene group having 1 to 10 carbon atoms or a cycloalkylene group having 3 to 10 carbon atoms, m is 0, 1 or 2 and each of R 2 in the alkylene glycol moiety (III) is the same or different.).
A coupling device with a first coupler and a second coupler , the coupling device configured to connect the first coupler and the second coupler by moving one coupler of the first coupler and the second coupler to the other coupler of the first coupler and the second coupler , the first coupler including a first cylinder body , the second coupler including a second cylinder body facing the first cylinder body , a cylindrical ring member coaxial with the second cylinder body , disposed outside the second cylinder body and movable in an axial direction of the second cylinder body , a seal ring arranged between the second cylinder body and the ring member , and a bias mechanism biasing the ring member toward the first cylinder body , a sealing member being disposed on at least one of an end face of the first cylinder body and an end face of the ring member , and when the one coupler is moved toward the other coupler , the end face of the first cylinder body contacting the end face of the ring member via the sealing member , whereby an inner passage of the first cylinder body is in communication with an inner passage of the second cylinder body , wherein the coupling device further comprises a retainer provided on the second coupler and configured to prevent removal of the ring member from the second cylinder body ; characterized in that the cylindrical ring member is engaged on an outer side of the second cylinder body with a gap; wherein an annular groove is formed in an inner circumferential surface of the ring member ; wherein the ring member has an inner diameter uniform except the annular groove and the inner diameter of the ring member is larger than an outer diameter of the second cylinder body . the first coupler including a first cylinder body , the second coupler including a second cylinder body facing the first cylinder body , a cylindrical ring member coaxial with the second cylinder body , disposed outside the second cylinder body and movable in an axial direction of the second cylinder body , a seal ring arranged between the second cylinder body and the ring member , and a bias mechanism biasing the ring member toward the first cylinder body , a sealing member being disposed on at least one of an end face of the first cylinder body and an end face of the ring member , and when the one coupler is moved toward the other coupler , the end face of the first cylinder body contacting the end face of the ring member via the sealing member , whereby an inner passage of the first cylinder body is in communication with an inner passage of the second cylinder body , wherein the coupling device further comprises a retainer provided on the second coupler and configured to prevent removal of the ring member from the second cylinder body ; characterized in that the cylindrical ring member is engaged on an outer side of the second cylinder body with a gap; wherein an annular groove is formed in an inner circumferential surface of the ring member ; wherein the ring member has an inner diameter uniform except the annular groove and the inner diameter of the ring member is larger than an outer diameter of the second cylinder body .
A method for transmitting consumption data by a meter intended for a meter data management system, comprising the following steps performed by said meter: - obtaining (S301) consumption data, said data being obtained by metrology software; - generating (S302) a hashcode from a quadruplet comprising said consumption data obtained and a triplet comprising a serial number of said meter, a cyclic redundancy code calculated from said metrology software and a certificate number certifying that said meter is authorised to be used for invoicing consumption; - encrypting (S304) said hashcode with a private key known solely to the meter, said encrypted hashcode being a signature; and - transmitting (S306), to the system managing said consumption data, a frame comprising an identifier of said meter, said consumption data obtained and said signature. - obtaining (S301) consumption data, said data being obtained by metrology software; - generating (S302) a hashcode from a quadruplet comprising said consumption data obtained and a triplet comprising a serial number of said meter, a cyclic redundancy code calculated from said metrology software and a certificate number certifying that said meter is authorised to be used for invoicing consumption; - encrypting (S304) said hashcode with a private key known solely to the meter, said encrypted hashcode being a signature; and - transmitting (S306), to the system managing said consumption data, a frame comprising an identifier of said meter, said consumption data obtained and said signature.
A method for disassembling rollers of a roller press standing on a base, the roller press comprising - at least one support structure , - at least two rollers mounted on the support structure and - at least one pressing device , wherein the rollers are respectively rotated around an axis of rotation when the roller press is in operation, wherein an axis of rotation respectively extends in the longitudinal direction of the corresponding roller , wherein the axes of rotation are oriented parallel to one another and horizontally, so that the rollers collectively delimit a grinding gap , into which the grinding material can be introduced and subsequently ground between the rollers , wherein at least one of the rollers is designed as an idling roller , which cooperates with at least two pivoting devices , wherein the end portions of the idling roller which are opposite one another are respectively mounted on a mounting position of a pivoting device , wherein the at least one pressing device engages on a point of engagement on at least one of the pivoting devices , so that the idling roller can be pivoted around a pivot axis relative to the remaining support structure by action of the pressing device by means of the pivoting devices , as a result of which a distance can be modified between the axes of rotation of the idling roller and the other roller , comprising the following method steps: a) The rollers are detached from the support structure , b) The rollers are removed, wherein at least the idling roller is moved in a direction parallel to its axis of rotation relative to the support structure after being detached from the support structure , characterized by the following method step: c) The idling roller is lowered starting from its operating position relative to the support structure prior to its movement parallel to the axis of rotation. - at least one support structure , - at least two rollers mounted on the support structure and - at least one pressing device , a) The rollers are detached from the support structure , b) The rollers are removed, wherein at least the idling roller is moved in a direction parallel to its axis of rotation relative to the support structure after being detached from the support structure ,
Method for extracting data from a data stream flowing over an IP network , the data of the stream being organized according to an application layer protocol, the method comprising a real time analysis phase of the data stream, executed by a data extractor including a state machine , in which the state machine is constructed with states and transitions configured according to at least one type of data to be extracted from the stream, the transitions between states being activated by the respective conditions defined as a function of rules for organization of the data of the stream according to said application layer protocol, at least one state being selected for the extraction of data from the stream, wherein the real time analysis phase of the data stream, comprises: • observing the data of the stream originating from IP packets flowing successively over the network; • when the state machine is in a current state, determining if an activation condition of a transition from the current state to a target state is fulfilled by the observed data of the stream and when this activation condition is fulfilled, changing the state machine to the target state; • extracting the data from the stream when the state machine is in a state selected for the extraction of data from the stream; and • disregarding the data of the stream when the state machine is in a state not selected, wherein in at least one stat of the state machine selected for the extraction of data from the stream, the data extracted from the stream are stored in buffer memory then transferred to an external processor once the state machine leaves said selected state. • observing the data of the stream originating from IP packets flowing successively over the network; • when the state machine is in a current state, determining if an activation condition of a transition from the current state to a target state is fulfilled by the observed data of the stream and when this activation condition is fulfilled, changing the state machine to the target state; • extracting the data from the stream when the state machine is in a state selected for the extraction of data from the stream; and • disregarding the data of the stream when the state machine is in a state not selected,