mhurhangee/patent-ind-claim-en huggingface dataset:
An associative rheology modifier obtainable by a process comprising: reacting a rosin acid with a polyether at a mole ratio of the rosin acid to the polyether of > 2:1, at a temperature from 180 - 350 °C and in the presence of an acid catalyst to form a rheology modifier precursor, wherein the polyether has a molecular weight (Mw) of 500 - 10,000 g/mol; and the rheology modifier precursor has a water solubility of > 10 wt.% concentration at a temperature of 25°C; coupling the rheology modifier precursor with a coupling agent in an amount of 0.1 - 15 wt.%, based on total weight of the rheology modifier precursor, wherein the coupling agent is reactive to carbon-carbon double bonds in the rheology modifier precursor and is selected from sulfur-based agents, peroxide-based agents, acrylate-based agents, tellurium, selenium, polysulfide polymers, metallic oxides and di-isocyanates; wherein the associative rheology modifier has a molecular weight (Mw) of 1,500 - 25,000 g/mol; and a water solubility of > 10 wt.% concentration at a temperature of 25°C; and an apparent viscosity of 100,000- 2,000 cP at a shear rate from 1,500 - 5,000 s -1 and an apparent viscosity of 2,000-100 cP at a shear rate from 5,000 - 20,000 s -1 , at a concentration of 25 wt.% in water and at a temperature of 25°C. wherein the polyether has a molecular weight (Mw) of 500 - 10,000 g/mol; and the rheology modifier precursor has a water solubility of > 10 wt.% concentration at a temperature of 25°C; coupling the rheology modifier precursor with a coupling agent in an amount of 0.1 - 15 wt.%, based on total weight of the rheology modifier precursor, wherein the coupling agent is reactive to carbon-carbon double bonds in the rheology modifier precursor and is selected from sulfur-based agents, peroxide-based agents, acrylate-based agents, tellurium, selenium, polysulfide polymers, metallic oxides and di-isocyanates; wherein the associative rheology modifier has coupling the rheology modifier precursor with a coupling agent in an amount of 0.1 - 15 wt.%, based on total weight of the rheology modifier precursor, wherein the coupling agent is reactive to carbon-carbon double bonds in the rheology modifier precursor and is selected from sulfur-based agents, peroxide-based agents, acrylate-based agents, tellurium, selenium, polysulfide polymers, metallic oxides and di-isocyanates; wherein the associative rheology modifier has a molecular weight (Mw) of 1,500 - 25,000 g/mol; and a water solubility of > 10 wt.% concentration at a temperature of 25°C; and an apparent viscosity of 100,000- 2,000 cP at a shear rate from 1,500 - 5,000 s -1 and an apparent viscosity of 2,000-100 cP at a shear rate from 5,000 - 20,000 s -1 , at a concentration of 25 wt.% in water and at a temperature of 25°C.
A multi-fiber, fiber optic connector comprising: a first surface on the top of the connector and a second surface on the bottom of the connector , a first recess defined on the first surface on the top of the connector , adapted to receive a first key to change the polarity of the fiber optic connector , a second recess defined on the second surface on the bottom of the connector , adapted to receive a second key to change the polarity of the fiber optic connector , a housing enclosing a portion of the first surface of the connector and the second surface of the connector , and either one of guide pins or guide pin receiving holes for guiding a connection with a second connector, characterised in, that the connector comprises the first key and a second key , that the first recess is a first slot and that the second recess is a second slot, wherein the first key is slideable relative to the first slot and the housing and configured to be received within the housing , wherein the second key is slideable relative to the second slot and the housing and configured to be received within the housing , wherein, in operation, to change the polarity of the fiber optic connector , the first key is configured to be slid ingressingly into the housing within the first slot and the second key is configured to be slid out of the housing within the second slot such that the second key extends from the housing while the first key remains within the housing . a first surface on the top of the connector and a second surface on the bottom of the connector , a first recess defined on the first surface on the top of the connector , adapted to receive a first key to change the polarity of the fiber optic connector , a second recess defined on the second surface on the bottom of the connector , adapted to receive a second key to change the polarity of the fiber optic connector , a housing enclosing a portion of the first surface of the connector and the second surface of the connector , and either one of guide pins or guide pin receiving holes for guiding a connection with a second connector, characterised in, that the connector comprises the first key and a second key , that the first recess is a first slot and that the second recess is a second slot, wherein the first key is slideable relative to the first slot and the housing and configured to be received within the housing , wherein the second key is slideable relative to the second slot and the housing and configured to be received within the housing , wherein, in operation, to change the polarity of the fiber optic connector , the first key is configured to be slid ingressingly into the housing within the first slot and the second key is configured to be slid out of the housing within the second slot such that the second key extends from the housing while the first key remains within the housing .
A method of classifying data points of a point cloud using a digital map, the digital map comprising a plurality of segments, each segment representing a navigable element of a navigable network and comprising a plurality of reference lines indicative of borders of the navigable element, wherein each segment is associated with location data indicative of the geographical location of the plurality of reference lines, and each segment is further associated with localisation reference data indicative of the geographical location of the surfaces of objects in an environment around the navigable element, the method comprising: obtaining the localisation reference data for one or more segments of the digital map based on a deemed current position of a vehicle along a navigable element of the navigable network; determining real time scan data by scanning the environment around the vehicle using at least one sensor, wherein the real time scan data is based on a point cloud indicative of the environment around the vehicle, the point cloud including a plurality of data points in a three-dimensional coordinate system, wherein each data point has a location in the three-dimensional coordinate system representing a surface of an object in the environment as determined using the at least one sensor; calculating a correlation between the localisation reference data and the real time scan data to determine one or more alignment offsets; using the determined one or more alignment offsets to adjust the location of the data points of the point cloud of the real time scan data; comparing, for each of the plurality of data points, the adjusted location of the data point to the location data for the relevant segment to determine if the data point is between the borders of the navigable element; and classifying each of the plurality of data points into one or more groups based on the comparison. obtaining the localisation reference data for one or more segments of the digital map based on a deemed current position of a vehicle along a navigable element of the navigable network; determining real time scan data by scanning the environment around the vehicle using at least one sensor, wherein the real time scan data is based on a point cloud indicative of the environment around the vehicle, the point cloud including a plurality of data points in a three-dimensional coordinate system, wherein each data point has a location in the three-dimensional coordinate system representing a surface of an object in the environment as determined using the at least one sensor; calculating a correlation between the localisation reference data and the real time scan data to determine one or more alignment offsets; using the determined one or more alignment offsets to adjust the location of the data points of the point cloud of the real time scan data; comparing, for each of the plurality of data points, the adjusted location of the data point to the location data for the relevant segment to determine if the data point is between the borders of the navigable element; and classifying each of the plurality of data points into one or more groups based on the comparison.
An ultracapacitor comprising: a first electrode that comprises a first current collector electrically coupled to a first carbonaceous coating comprising activated carbon, a water-insoluble organic binder, and a water-soluble organic binder; a second electrode that comprises a second current collector electrically coupled to a second carbonaceous coating comprising activated carbon, a water-insoluble organic binder, and a water-soluble organic binder, wherein the first current collector and the second current collector each contain a substrate that includes a conductive metal, wherein a plurality of fiber-like whiskers project outwardly from the substrate of the first current collector, the substrate of the second current collector, or both; a separator positioned between the first electrode and the second electrode ; a nonaqueous electrolyte that is in ionic contact with the first electrode and the second electrode; and a housing within which the first electrode, the second electrode, the separator, and the electrolyte are retained, wherein the housing contains a metal container , wherein the binders constitute 0.5 to 5 wt.-% of the total weight of a carbonaceous coating. a first electrode that comprises a first current collector electrically coupled to a first carbonaceous coating comprising activated carbon, a water-insoluble organic binder, and a water-soluble organic binder; a second electrode that comprises a second current collector electrically coupled to a second carbonaceous coating comprising activated carbon, a water-insoluble organic binder, and a water-soluble organic binder, wherein the first current collector and the second current collector each contain a substrate that includes a conductive metal, wherein a plurality of fiber-like whiskers project outwardly from the substrate of the first current collector, the substrate of the second current collector, or both; a separator positioned between the first electrode and the second electrode ; a nonaqueous electrolyte that is in ionic contact with the first electrode and the second electrode; and a housing within which the first electrode, the second electrode, the separator, and the electrolyte are retained, wherein the housing contains a metal container , wherein the binders constitute 0.5 to 5 wt.-% of the total weight of a carbonaceous coating.
A method of retransmitting a coded data block to decode a failed MAC Protocol Data Unit, in the following also referred to as MPDU, of an Aggregated MPDU, A-MPDU, in a wireless network, the method comprising: identifying a first codeword comprising a first bit of an A-MPDU subframe, wherein the A-MPDU subframe carries the failed MPDU ; identifying a second codeword comprising the last bit of the A-MPDU subframe ; and retransmitting the coded data block, the coded data block comprising the first codeword, the second codeword, and any codewords between the first codeword and the second codeword , wherein the failed MPDU is decoded using the coded data block, the A-MPDU comprises the MAC header CRC field for verifying the source address and the receiver address of the failed MPDU, the MAC header CRC field is included in the A-MPDU subframe, and wherein the A-MPDU subframe comprises a CRC Present subfield, and the CRC Present subfield is set to 1 when the MAC Header CRC field of the A-MPDU subframe comprises a 16-bit CRC value, wherein the 16-bit CRC value represents a Frame Control field, a Duration/ID field, an Address1 field, an Address2 field, an Address3 field, an Address4 field, a Sequence Control field, a QoS Control field, and an HT Control field of a MAC header. identifying a first codeword comprising a first bit of an A-MPDU subframe, wherein the A-MPDU subframe carries the failed MPDU ; identifying a second codeword comprising the last bit of the A-MPDU subframe ; and retransmitting the coded data block, the coded data block comprising the first codeword, the second codeword, and any codewords between the first codeword and the second codeword , wherein the failed MPDU is decoded using the coded data block, the A-MPDU comprises the MAC header CRC field for verifying the source address and the receiver address of the failed MPDU, the MAC header CRC field is included in the A-MPDU subframe, and wherein the A-MPDU subframe comprises a CRC Present subfield, and the CRC Present subfield is set to 1 when the MAC Header CRC field of the A-MPDU subframe comprises a 16-bit CRC value, wherein the 16-bit CRC value represents a Frame Control field, a Duration/ID field, an Address1 field, an Address2 field, an Address3 field, an Address4 field, a Sequence Control field, a QoS Control field, and an HT Control field of a MAC header.
A method for providing a secure remote collaboration solution between a remote communication device connected to a remote network and a device connected to a private and secure network, the remote network being different from the private and secure network, the method comprising: determining a location of the remote communication device by at least one of a global positioning system, GPS, low frequency, LF, atomic time radio, earth magnetic signature, internet protocol, IP, address, and cell phone tower triangulation; determining regulations regarding communication from the private and secure network to the remote device based on the determined location and a location of the private and secure network; identifying a bandwidth of a remote network to which the remote communication device is connected; estimating a battery power available at the remote device and the amount of time the available battery power will allow the remote device to communicate with the device of the private and secure network using multiple manners in which communications are transmitted or received; configuring the remote device to transmit and receive communications in a manner compliant with the determined regulations including one of voice over internet protocol, VOIP, communication, hypertext transfer protocol, HTTP, communication, text communication, voice communication, video communication, and augmented reality video communication determined based on the identified bandwidth and the estimated amount of time the available battery power will allow the remote device to communicate. determining a location of the remote communication device by at least one of a global positioning system, GPS, low frequency, LF, atomic time radio, earth magnetic signature, internet protocol, IP, address, and cell phone tower triangulation; determining regulations regarding communication from the private and secure network to the remote device based on the determined location and a location of the private and secure network; identifying a bandwidth of a remote network to which the remote communication device is connected; estimating a battery power available at the remote device and the amount of time the available battery power will allow the remote device to communicate with the device of the private and secure network using multiple manners in which communications are transmitted or received; configuring the remote device to transmit and receive communications in a manner compliant with the determined regulations including one of voice over internet protocol, VOIP, communication, hypertext transfer protocol, HTTP, communication, text communication, voice communication, video communication, and augmented reality video communication determined based on the identified bandwidth and the estimated amount of time the available battery power will allow the remote device to communicate.
A resource scheduling method for a logical channel, comprising determining (S101) two logical channels mapped to a same Packet Data Convergence Protocol, PDCP, entity; maintaining (S102) variables of scheduling times for the two logical channels mapped to the same PDCP entity respectively, wherein the variable of scheduling times reflects the number of times a corresponding logical channel is scheduled; after an uplink grant resource is obtained, selecting (S103) a logical channel which is scheduled with fewer times from the two logical channels to participate in uplink grant resource scheduling for a present transmission, and all of logical channels not mapped to the same PDCP entity participate in the uplink grant resource scheduling for the present transmission, wherein the two logical channels carry an original PDCP Protocol Data Unit, PDU, and a duplicate PDCP PDU, respectively; performing (S104) the uplink grant resource scheduling for the present transmission. determining (S101) two logical channels mapped to a same Packet Data Convergence Protocol, PDCP, entity; maintaining (S102) variables of scheduling times for the two logical channels mapped to the same PDCP entity respectively, wherein the variable of scheduling times reflects the number of times a corresponding logical channel is scheduled; after an uplink grant resource is obtained, selecting (S103) a logical channel which is scheduled with fewer times from the two logical channels to participate in uplink grant resource scheduling for a present transmission, and all of logical channels not mapped to the same PDCP entity participate in the uplink grant resource scheduling for the present transmission, wherein the two logical channels carry an original PDCP Protocol Data Unit, PDU, and a duplicate PDCP PDU, respectively; performing (S104) the uplink grant resource scheduling for the present transmission.
A tip for a 3D scanner, wherein the tip comprises: - a tip framework , where a first part of the framework comprises a first material and a second part of the framework comprises a second material where both the first and second part form a portion of the outer surface of the framework, where the ratio between the thermal conductivity of the second material and the thermal conductivity of the first material is 5 or more, and where the second material is a metal; and - an optical element arranged at said second part of the framework in thermal contact with the second material. - a tip framework , where a first part of the framework comprises a first material and a second part of the framework comprises a second material where both the first and second part form a portion of the outer surface of the framework, where the ratio between the thermal conductivity of the second material and the thermal conductivity of the first material is 5 or more, and where the second material is a metal; and - an optical element arranged at said second part of the framework in thermal contact with the second material.
A method of controlling a gas turbine arranged to supply a load L, the gas turbine comprising a fuel supply means arranged to supply fuel at a fuel flow rate FF to a combustor , wherein the fuel supply means comprises a first fuel supply means and a second fuel supply means , the method comprising: controlling a proportion P of the fuel flow rate FF supplied via the first fuel supply means based, at least in part, on the fuel flow rate FF; measuring an ambient temperature TA and wherein the fuel flow rate FF is based, at least in part, on the ambient temperature TA, measuring a combustor exit temperature TX and/or a turbine inlet temperature TI and wherein the controlling the proportion P of the fuel flow rate F supplied via the first fuel supply means based, at least in part, on the fuel flow rate FF if the combustor exit temperature TX is greater than a third predetermined temperature T3 and/or if the turbine inlet temperature TI is greater than a fourth predetermined temperature T4, wherein if the combustor exit temperature TX is at most the third predetermined temperature T3, and/or if the turbine inlet temperature (TI) is at most the fourth predetermined temperature T4, the proportion P of the fuel flow rate FF supplied via the first fuel supply means is constant, wherein the proportion P of the fuel flow rate FF supplied via the first fuel supply means based, at least in part, on the fuel flow rate FF considers a liquid fuel spray pressure drop and/or a gas fuel pressure ratio, whereby a metal temperature and/or an emission of the gas turbine is improved. controlling a proportion P of the fuel flow rate FF supplied via the first fuel supply means based, at least in part, on the fuel flow rate FF; measuring an ambient temperature TA and wherein the fuel flow rate FF is based, at least in part, on the ambient temperature TA, measuring a combustor exit temperature TX and/or a turbine inlet temperature TI and wherein the controlling the proportion P of the fuel flow rate F supplied via the first fuel supply means based, at least in part, on the fuel flow rate FF if the combustor exit temperature TX is greater than a third predetermined temperature T3 and/or if the turbine inlet temperature TI is greater than a fourth predetermined temperature T4, wherein if the combustor exit temperature TX is at most the third predetermined temperature T3, and/or if the turbine inlet temperature (TI) is at most the fourth predetermined temperature T4, the proportion P of the fuel flow rate FF supplied via the first fuel supply means is constant, wherein the proportion P of the fuel flow rate FF supplied via the first fuel supply means based, at least in part, on the fuel flow rate FF considers a liquid fuel spray pressure drop and/or a gas fuel pressure ratio, whereby a metal temperature and/or an emission of the gas turbine is improved.
A mutein of human neutrophil gelatinase-associated lipocalin (hNGAL), wherein at least 11 amino acid residues are substituted at sequence positions corresponding to the sequence positions 33, 36, 41, 52, 54, 68, 70, 79, 81, 134, 136, and 138 of the linear polypeptide sequence of mature hNGAL as shown in SEQ ID NO: 1, and wherein the mutein binds a given target with a dissociation constant (K D ) of 200 nM or lower.
A method of operating a fire detection system comprising a control panel , one or more fire devices and a diagnostic tool arranging the one or more fire devices , each fire device including: a base portion fixed in a location; a replaceable device portion installed to the base portion , the device portion configured to detect fire and/or smoke; a passive radio frequency identification (RFID) tag affixed to the base portion , the RFID tag uniquely identifying a location of the fire device ; and a RFID circuit comprising a transceiver and disposed at the device portion to receive a signal from the RFID tag , and wirelessly communicating with the one or more fire devices via the diagnostic tool through the transceiver, and wherein the RFID circuit is utilized to communicate and report data stored in the device portion to the control panel for maintenance, service or calibration purposes. a base portion fixed in a location; a replaceable device portion installed to the base portion , the device portion configured to detect fire and/or smoke; a passive radio frequency identification (RFID) tag affixed to the base portion , the RFID tag uniquely identifying a location of the fire device ; and a RFID circuit comprising a transceiver and disposed at the device portion to receive a signal from the RFID tag , and