mhurhangee/patent-ind-claim-en huggingface dataset:
Center plate for a rotor in a pulp or fiber refiner , said center plate having a surface provided with at least one feeding wing for directing lignocellulose-containing material flowing onto said surface towards a periphery of the center plate , where said at least one feeding wing is an elongated protrusion extending between a first end and a second end , said second end of said at least one feeding wing being arranged further away from a center of the center plate than said first end of said at least one feeding wing , and said second end of said at least one feeding wing being displaced relative to said first end of said at least one feeding wing in a direction opposite to a direction of rotation of the rotor and the center plate , characterized in that said surface is provided with at least one counter-feeding wing for directing steam flowing along said surface towards the center of the center plate , where said at least one counter-feeding wing is an elongated protrusion extending between a first end and a second end , said second end of said at least one counter-feeding wing being arranged further away from the center of the center plate than said first end of said at least one counter-feeding wing and closer to the center of the center plate than said first end of said at least one feeding wing , and said second end of said at least one counter-feeding wing being displaced relative to said first end of said at least one counter-feeding wing in a same direction as the direction of rotation , for directing steam to flow along said at least one counter-feeding wing in a direction having a component directed towards the center of the center plate , when the center plate is rotating in the direction of rotation .
An antibody that binds to CD25, comprising a heavy chain variable region, a heavy chain constant region, a light chain variable region, and a light chain constant region, wherein the heavy chain variable region amino acid sequence is represented by SEQ ID NO: 4, the heavy chain constant region amino acid sequence is represented by SEQ ID NO: 17, the light chain variable region is represented by SEQ ID NO: 3, and the light chain constant region is represented by SEQ ID NO: 20.
A method of wireless communication performed by a user equipment, UE, comprising: determining that beam measurement resources, associated with performing beam management, are to be activated; and transmitting to a base station an activation signal associated with requesting activation of the beam measurement resources , characterised in that the activation signal indicates a number of communication cycles during which the beam measurement resources are to be activated. determining that beam measurement resources, associated with performing beam management, are to be activated; and transmitting to a base station an activation signal associated with requesting activation of the beam measurement resources , characterised in that the activation signal indicates a number of communication cycles during which the beam measurement resources are to be activated.
An air separator for an extracorporeal blood circuit for separating air from a fluid flowing through the air separator , comprising at least one air separation chamber having: - at least one inlet channel , through which the fluid can flow into the air separation chamber , and having - at least one outlet channel , through which the fluid can flow out of the air separation chamber , wherein the air separation chamber comprises: - one first chamber having at least one first chamber cross-section (QK1), into which the inlet channel opens, - at least one second chamber having one second chamber cross-section (QK2), from which the outlet channel leaves, wherein a connection opening is provided between the first chamber and the second chamber , through which the fluid can flow from the first chamber into the second chamber , wherein the air separator according to the invention comprises an indentation or a constriction of its inner and/or outer wall, characterized in that the inlet of the fluid occurs tangentially to at least one side wall of the first chamber , and in that the inlet channel is arranged in a lower region of the air separator or in a lower region of the first chamber . - at least one inlet channel , through which the fluid can flow into the air separation chamber , and having - at least one outlet channel , through which the fluid can flow out of the air separation chamber , - one first chamber having at least one first chamber cross-section (QK1), into which the inlet channel opens, - at least one second chamber having one second chamber cross-section (QK2), from which the outlet channel leaves,
A method of producing a fibrous carbon nanostructure dispersion liquid comprising: a dispersed mixture preparation step, in which a coarse dispersion liquid obtained by adding one or more fibrous carbon nanostructures into a solvent is subjected to a dispersion treatment to obtain a dispersed mixture, a centrifugal separation step of performing centrifugal separation of the dispersed mixture to cause sedimentation of a portion of the one or more fibrous carbon nanostructures, and a fractionation step of fractionating a supernatant from the dispersed mixture that has undergone centrifugal separation in the centrifugal separation step, wherein the dispersion treatment to which the coarse dispersion liquid is subjected is a dispersion treatment using ultrasound, a dispersion treatment using a jet mill, a dispersion treatment using high-shear stirring, or any combination thereof, and the one or more fibrous carbon nanostructures that are added to the solvent in the dispersed mixture preparation step: are subjected to pretreatment prior to addition in order to separate metal and particulate impurities, and include amorphous carbon in an amount so that the percentage mass loss is 3.0 mass% or less upon heating from 23°C to 200°C at a heating rate of 20°C/min in a nitrogen atmosphere as measured by thermogravimetric analysis. a dispersed mixture preparation step, in which a coarse dispersion liquid obtained by adding one or more fibrous carbon nanostructures into a solvent is subjected to a dispersion treatment to obtain a dispersed mixture, a centrifugal separation step of performing centrifugal separation of the dispersed mixture to cause sedimentation of a portion of the one or more fibrous carbon nanostructures, and a fractionation step of fractionating a supernatant from the dispersed mixture that has undergone centrifugal separation in the centrifugal separation step, wherein the dispersion treatment to which the coarse dispersion liquid is subjected is a dispersion treatment using ultrasound, a dispersion treatment using a jet mill, a dispersion treatment using high-shear stirring, or any combination thereof, and the one or more fibrous carbon nanostructures that are added to the solvent in the dispersed mixture preparation step: are subjected to pretreatment prior to addition in order to separate metal and particulate impurities, and include amorphous carbon in an amount so that the percentage mass loss is 3.0 mass% or less upon heating from 23°C to 200°C at a heating rate of 20°C/min in a nitrogen atmosphere as measured by thermogravimetric analysis. are subjected to pretreatment prior to addition in order to separate metal and particulate impurities, and include amorphous carbon in an amount so that the percentage mass loss is 3.0 mass% or less upon heating from 23°C to 200°C at a heating rate of 20°C/min in a nitrogen atmosphere as measured by thermogravimetric analysis.
An apparatus for mapping regions of damage around a wound , said apparatus comprising: a plurality of electrodes embedded on a substrate configured to be placed over a portion of an area of tissue that includes said wound , wherein combinations of said plurality of electrodes are capable of forming a plurality of virtual capacitive sensors , each of said virtual capacitive sensors comprising a predetermined subset of said plurality of electrodes and configured to measure a capacitance of a region of tissue proximate to said respective virtual capacitive sensor , a projector capable of projecting a visual indicator onto said area of tissue that includes said wound, a drive circuit electronically coupled to said plurality of electrodes and said projector, wherein each of said virtual capacitive sensors is connected to a common element of said circuit, a processor electronically coupled to said drive circuit, and a non-transitory computer-readable medium electronically coupled to said processor and comprising instructions stored thereon that, when executed on said processor, perform the steps of: receiving information regarding said measured capacitance from a subset of said plurality of virtual capacitive sensors via said drive circuit, determining a first boundary between a first type of tissue and a second type of tissue, and causing said projector to project said visual indicator to indicate said first boundary. a plurality of electrodes embedded on a substrate configured to be placed over a portion of an area of tissue that includes said wound , wherein combinations of said plurality of electrodes are capable of forming a plurality of virtual capacitive sensors , each of said virtual capacitive sensors comprising a predetermined subset of said plurality of electrodes and configured to measure a capacitance of a region of tissue proximate to said respective virtual capacitive sensor , a projector capable of projecting a visual indicator onto said area of tissue that includes said wound, a drive circuit electronically coupled to said plurality of electrodes and said projector, wherein each of said virtual capacitive sensors is connected to a common element of said circuit, a processor electronically coupled to said drive circuit, and a non-transitory computer-readable medium electronically coupled to said processor and comprising instructions stored thereon that, when executed on said processor, perform the steps of: receiving information regarding said measured capacitance from a subset of said plurality of virtual capacitive sensors via said drive circuit, determining a first boundary between a first type of tissue and a second type of tissue, and causing said projector to project said visual indicator to indicate said first boundary. receiving information regarding said measured capacitance from a subset of said plurality of virtual capacitive sensors via said drive circuit, determining a first boundary between a first type of tissue and a second type of tissue, and causing said projector to project said visual indicator to indicate said first boundary.
A dryer stand comprising: a base which is disposed in a lower side of the dryer stand; a receptacle having a space in which a dryer for discharging drying air can be mounted, the receptacle being configured to be able to be tilted with respect to the vertical direction of the dryer stand; a body which is disposed above the base , and comprises an upper body disposed adjacent to an upper side of the receptacle ; a tilting pin which extends outward from an outer surface of the receptacle and is a rotational center of the tilting motion of the receptacle ; and a pin mount which has one side coupled to the upper body , and has an insertion hole into which the tilting pin is inserted so that the tilting pin is rotatably supported, wherein the base is capable of being put on an indoor floor of an indoor space for use of the dryer stand in the indoor space, and the body further comprises a side body forming a side shape of the dryer stand and disposed between the upper body and the base , and the receptacle is further accommodated in the side body at a certain height in an upward direction from the base . a base which is disposed in a lower side of the dryer stand; a receptacle having a space in which a dryer for discharging drying air can be mounted, the receptacle being configured to be able to be tilted with respect to the vertical direction of the dryer stand; a body which is disposed above the base , and comprises an upper body disposed adjacent to an upper side of the receptacle ; a tilting pin which extends outward from an outer surface of the receptacle and is a rotational center of the tilting motion of the receptacle ; and a pin mount which has one side coupled to the upper body , and has an insertion hole into which the tilting pin is inserted so that the tilting pin is rotatably supported, wherein the base is capable of being put on an indoor floor of an indoor space for use of the dryer stand in the indoor space, and the body further comprises a side body forming a side shape of the dryer stand and disposed between the upper body and the base , and the receptacle is further accommodated in the side body at a certain height in an upward direction from the base .
A monitoring camera device (A) used for monitoring a device under a high-temperature and humid environment, the monitoring camera device (A) comprising: a monitoring camera ; an inner housing section containing the monitoring camera ; a housing section containing the inner housing section ; and a cooling air pipe for introducing cooling air into the housing section , wherein the inner housing section is provided with an inner opening section , and the monitoring camera is inserted into the inner opening section and supported, the housing section includes a cylindrical main body section , a rear cover section attached to a rear end of the main body section and a front cover section attached to a front end of the main body section , the front cover section is provided with an opening section , the cooling air pipe is attached to the rear cover section , a gap section is provided between the housing section and the inner housing section , and the cooling air introduced into the housing section by the cooling air pipe flows through the gap section , is sprayed toward the front of the monitoring camera at inner opening section , and is released from the opening section . a monitoring camera ; an inner housing section containing the monitoring camera ; a housing section containing the inner housing section ; and a cooling air pipe for introducing cooling air into the housing section , wherein the inner housing section is provided with an inner opening section , and the monitoring camera is inserted into the inner opening section and supported, the housing section includes a cylindrical main body section , a rear cover section attached to a rear end of the main body section and a front cover section attached to a front end of the main body section , the front cover section is provided with an opening section , the cooling air pipe is attached to the rear cover section , a gap section is provided between the housing section and the inner housing section , and the cooling air introduced into the housing section by the cooling air pipe flows through the gap section , is sprayed toward the front of the monitoring camera at inner opening section , and is released from the opening section .
A heterocycle-containing amino acid compound represented by a general formula : wherein R 1 and R 2 each represent a hydrogen atom; R 3 represents a carboxyl group or a hydroxyl group; and n is 1, or a salt thereof. wherein R 1 and R 2 each represent a hydrogen atom; R 3 represents a carboxyl group or a hydroxyl group; and n is 1, or a salt thereof.
A communication system in an aircraft , comprising: a communications management unit, CMU, that is coupled to at least one safety subnetwork and an Aircraft Communications Addressing and Reporting System, ACARS, over IP, AOIP, computing device ; the AOIP computing device , characterized in that the AOIP computing device is coupled to at least one non-safety subnetwork , wherein the AOIP computing device determines whether ACARS messages received from the CMU are ACARS safety messages or ACARS non-safety messages; wherein the AOIP computing device monitors CMU status messages from the CMU ; wherein, in response to the AOIP computing device receiving an ACARS safety message, the AOIP computing device periodically transmits a second status message indicating that the AOIP computing device is unavailable; and wherein, in response to determining that at least one safety subnetwork is available, the AOIP computing device stops periodically transmitting the second status message and transmits a first status message indicating that the AOIP computing device is available. a communications management unit, CMU, that is coupled to at least one safety subnetwork and an Aircraft Communications Addressing and Reporting System, ACARS, over IP, AOIP, computing device ; the AOIP computing device , characterized in that the AOIP computing device is coupled to at least one non-safety subnetwork , wherein the AOIP computing device determines whether ACARS messages received from the CMU are ACARS safety messages or ACARS non-safety messages; wherein the AOIP computing device monitors CMU status messages from the CMU ; wherein, in response to the AOIP computing device receiving an ACARS safety message, the AOIP computing device periodically transmits a second status message indicating that the AOIP computing device is unavailable; and wherein, in response to determining that at least one safety subnetwork is available, the AOIP computing device stops periodically transmitting the second status message and transmits a first status message indicating that the AOIP computing device is available. wherein the AOIP computing device determines whether ACARS messages received from the CMU are ACARS safety messages or ACARS non-safety messages; wherein the AOIP computing device monitors CMU status messages from the CMU ; wherein, in response to the AOIP computing device receiving an ACARS safety message, the AOIP computing device periodically transmits a second status message indicating that the AOIP computing device is unavailable; and wherein, in response to determining that at least one safety subnetwork is available, the AOIP computing device stops periodically transmitting the second status message and transmits a first status message indicating that the AOIP computing device is available.
An autonomous cleaner , comprising: a traveling unit configured to move a main body ; a memory in which a first obstacle map for a cleaning area is stored; a communication unit configured to communicate with a second cleaner ; and a controller configured to perform calibration on a second obstacle map received based on a coordinate system of the stored first obstacle map when the second obstacle map for the cleaning area is received from the second cleaner ; characterized in that the controller is configured to recognize a position of the second cleaner using the second obstacle map in which calibration has been carried out, and to transmit a cleaning command generated based on the position of the second cleaner and a position information of the main body to the second cleaner . a traveling unit configured to move a main body ; a memory in which a first obstacle map for a cleaning area is stored; a communication unit configured to communicate with a second cleaner ; and a controller configured to perform calibration on a second obstacle map received based on a coordinate system of the stored first obstacle map when the second obstacle map for the cleaning area is received from the second cleaner ; characterized in that the controller is configured to recognize a position of the second cleaner using the second obstacle map in which calibration has been carried out, and to transmit a cleaning command generated based on the position of the second cleaner and a position information of the main body to the second cleaner .
A method of contactless communication between an object (TG) and a reader (RD) using active load modulation, the method comprising synchronising a first carrier signal (CLK) emitted by the reader (RD) and having a reference frequency, and a second carrier signal (OUT) extracted from the output signal (SIG4) of a controlled oscillator (DCO) of a digital phase-locked loop (DPLL) of said object (TG), said synchronisation comprising: - as long as a locking of said loop (DPLL) has not been detected, locking the frequency of the output signal of the oscillator (DCO) onto a frequency that is a multiple of the reference frequency, by controlling the oscillator (DCO) with a first control signal (VAL1) generated from a first value (ERR1) representative of the phase error of said phase-locked loop (DPLL), and - once said locking has been detected, continuing the locking by controlling the oscillator (DCO) with a second control signal (VAL2) generated from a second value (ERR2) obtained by a modulo-type operation performed on said first value (ERR1) representative of the phase error of the loop (DPLL). - as long as a locking of said loop (DPLL) has not been detected, locking the frequency of the output signal of the oscillator (DCO) onto a frequency that is a multiple of the reference frequency, by controlling the oscillator (DCO) with a first control signal (VAL1) generated from a first value (ERR1) representative of the phase error of said phase-locked loop (DPLL), and - once said locking has been detected, continuing the locking by controlling the oscillator (DCO) with a second control signal (VAL2) generated from a second value (ERR2) obtained by a modulo-type operation performed on said first value (ERR1) representative of the phase error of the loop (DPLL).
An in vitro method for targeting or cleaving a target nucleic acid, comprising: contacting the target nucleic acid with a CRISPR-Cas complex comprising (a) a Cas polypeptide comprising the amino acid sequence of SEQ ID NO: 1 or a sequence having at least 60% identity therewith, and (b) a guide RNA that is capable of binding the complex to a target sequence of the nucleic acid, wherein the method is not a method of treatment of the human or animal body by therapy and not a process for modifying the germ-line genetic identity of human beings.
A method for determining whether to initiate transmission of data on a candidate radio channel during a candidate period, the method being performed in a transceiver device of a cellular network and comprising the steps of: obtaining a first signal metric indicating a signal level of the candidate radio channel ; determining that the first signal metric indicates a signal level being greater than a first threshold ; obtaining a second signal metric indicating a signal level of at least one adjacent radio channel , being adjacent in frequency to the candidate radio channel ; refraining from initiating transmission on the candidate radio channel in the candidate period when the second signal metric indicates a lower signal level than the first signal metric; and initiating transmission of data on the candidate radio channel in the candidate period when the second signal metric indicates a higher signal level than the first signal metric. obtaining a first signal metric indicating a signal level of the candidate radio channel ; determining that the first signal metric indicates a signal level being greater than a first threshold ; obtaining a second signal metric indicating a signal level of at least one adjacent radio channel , being adjacent in frequency to the candidate radio channel ; refraining from initiating transmission on the candidate radio channel in the candidate period when the second signal metric indicates a lower signal level than the first signal metric; and initiating transmission of data on the candidate radio channel in the candidate period when the second signal metric indicates a higher signal level than the first signal metric.