mhurhangee/patent-ind-claim-en huggingface dataset:
An indoor air quality, IAQ, system for a building, comprising: a temperature sensor configured to measure a temperature of air within the building; a relative humidity, RH, sensor configured to measure a RH of the air within the building; and at least one of a thermostat and an IAQ control module configured to, during cooling of the air within the building, based on the RH, control operation of: a blower of an air handler unit of a heating, ventilation, and air conditioning, HVAC, system of the building; and a compressor of a condenser unit of the HVAC system of the building, characterized in that the at least one of the thermostat and the IAQ control module is configured to, while the compressor is off: operate the blower at a first predetermined speed when the RH is less than a first predetermined RH (RH3) but greater than a second predetermined RH (RH4); and operate the blower at a second predetermined speed that is greater than the first predetermined speed when the RH is less than the second predetermined RH (RH4). a temperature sensor configured to measure a temperature of air within the building; a relative humidity, RH, sensor configured to measure a RH of the air within the building; and at least one of a thermostat and an IAQ control module configured to, during cooling of the air within the building, based on the RH, control operation of: a blower of an air handler unit of a heating, ventilation, and air conditioning, HVAC, system of the building; and a compressor of a condenser unit of the HVAC system of the building, characterized in that the at least one of the thermostat and the IAQ control module is configured to, while the compressor is off: operate the blower at a first predetermined speed when the RH is less than a first predetermined RH (RH3) but greater than a second predetermined RH (RH4); and operate the blower at a second predetermined speed that is greater than the first predetermined speed when the RH is less than the second predetermined RH (RH4). a blower of an air handler unit of a heating, ventilation, and air conditioning, HVAC, system of the building; and a compressor of a condenser unit of the HVAC system of the building, characterized in that the at least one of the thermostat and the IAQ control module is configured to, while the compressor is off: operate the blower at a first predetermined speed when the RH is less than a first predetermined RH (RH3) but greater than a second predetermined RH (RH4); and operate the blower at a second predetermined speed that is greater than the first predetermined speed when the RH is less than the second predetermined RH (RH4). operate the blower at a first predetermined speed when the RH is less than a first predetermined RH (RH3) but greater than a second predetermined RH (RH4); and operate the blower at a second predetermined speed that is greater than the first predetermined speed when the RH is less than the second predetermined RH (RH4).
A method of wireless communication at a user equipment, UE, comprising: identifying a set of timing adjustment groups, TAGs; identifying a set of physical uplink control channel, PUCCH, cell groups each having carriers aggregated in a group for PUCCH transmission, the PUCCH cell groups comprising a first PUCCH cell group and a second PUCCH cell group; determining a timing alignment procedure based on an association, configured by a base station , between the set of TAGs and the set of PUCCH cell groups; initiating a time alignment timer for each TAG of the set of TAGs; and performing the timing alignment procedure for serving cells of at least one of the first or second PUCCH cell groups upon expiration of the time alignment timer. identifying a set of timing adjustment groups, TAGs; identifying a set of physical uplink control channel, PUCCH, cell groups each having carriers aggregated in a group for PUCCH transmission, the PUCCH cell groups comprising a first PUCCH cell group and a second PUCCH cell group; determining a timing alignment procedure based on an association, configured by a base station , between the set of TAGs and the set of PUCCH cell groups; initiating a time alignment timer for each TAG of the set of TAGs; and performing the timing alignment procedure for serving cells of at least one of the first or second PUCCH cell groups upon expiration of the time alignment timer.
Electrical assembly comprising: - a first busbar , - a second busbar , and - an electronic board , the first and the second busbar being in electrical contact with one another, in the connection area (Z), said board being at a distance from said connection area (Z), the assembly further comprising an electrical conduction part which makes an electrical connection between said connection area (Z) and the electronic board , and wherein the electrical conduction part is between the first busbar and the second busbar , and provides the only electrical connection for supplying a current to the electronic board . - a first busbar , - a second busbar , and - an electronic board , the first and the second busbar being in electrical contact with one another, in the connection area (Z), said board being at a distance from said connection area (Z), the assembly further comprising an electrical conduction part which makes an electrical connection between said connection area (Z) and the electronic board , and wherein the electrical conduction part is between the first busbar and the second busbar , and provides the only electrical connection for supplying a current to the electronic board .
Apparatus for dispensing fluid, comprising: a housing body comprising a plurality of external fluid ports , connectable to or configured to be integrally formed with a valve assembly that includes an elongate valve stem associated with a respective primary stem axis ; and a closure member in a first fluid communication passageway in the housing body, that rolls or slides along the passageway on an abutment surface of the housing body to selectively close a fluid flow path through at least one external fluid port ; wherein at least an inclined region of the abutment surface is inclined with respect to the primary stem axis; wherein the housing body further comprises a first and further valve seat at opposed end regions of the first fluid communication passageway; and wherein the first fluid communication passageway has a cross-section that constantly widens along a length of the passageway, between the first and further valve seats, towards said at least one external fluid port . a housing body comprising a plurality of external fluid ports , connectable to or configured to be integrally formed with a valve assembly that includes an elongate valve stem associated with a respective primary stem axis ; and a closure member in a first fluid communication passageway in the housing body, that rolls or slides along the passageway on an abutment surface of the housing body to selectively close a fluid flow path through at least one external fluid port ; wherein at least an inclined region of the abutment surface is inclined with respect to the primary stem axis; wherein the housing body further comprises a first and further valve seat at opposed end regions of the first fluid communication passageway; and wherein the first fluid communication passageway has a cross-section that constantly widens along a length of the passageway, between the first and further valve seats, towards said at least one external fluid port .
An acrylic polyurethane coating composition, comprising: an isocyanate component comprising at least one aliphatic polyisocyanate trimer or biuret; and an isocyanate reacting mixture, the isocyanate reacting mixture comprising from 25 wt% to 80 wt% of an acrylic polyol and from 1 wt% to 30 wt% of a polyether polyol, based on a total weight of the acrylic polyurethane coating composition, the acrylic polyol having a solids content of at least 50 wt%, based on a total weight of the acrylic polyurethane coating composition, and the polyether polyol having a viscosity of less than 500 mPa*s at 25 °C and a number average molecular weight greater than 300 and less than 700. an isocyanate component comprising at least one aliphatic polyisocyanate trimer or biuret; and an isocyanate reacting mixture, the isocyanate reacting mixture comprising from 25 wt% to 80 wt% of an acrylic polyol and from 1 wt% to 30 wt% of a polyether polyol, based on a total weight of the acrylic polyurethane coating composition, the acrylic polyol having a solids content of at least 50 wt%, based on a total weight of the acrylic polyurethane coating composition, and the polyether polyol having a viscosity of less than 500 mPa*s at 25 °C and a number average molecular weight greater than 300 and less than 700.
A random access signal sending method, comprising: determining (S303, S403) a frequency position of a random access resource based on a subcarrier offset and a resource block position of the random access resource; and sending (S304, S404) the random access signal to a network device at the frequency position of the random access resource, wherein the random access signal satisfies the following formula: s t = β PRACH ∑ k = 0 N ZC − 1 ∑ n = 0 N ZC − 1 x u , ν n . e − j 2 πnk N ZC . e j 2 π k + φ + Kk 0 Δƒ RA t − T CP , wherein s(t) is the random access signal; β PRACH is an amplitude adjustment factor of the random access signal, and is used to control transmit power of the random access signal; N ZC is a sequence length of a random access preamble; x u,v ( n ) represents a ZC sequence for generating the random access preamble; T CP represents a timelength of a cyclic prefix; Δ f RA represents a subcarrier spacing of the random access preamble; K = Δ f / Δ f RA , wherein Δ f represents a subcarrier spacing of an initial active uplink bandwidth part, IAU BWP, or an uplink access bandwidth part, BWP; k 0 is a frequency position of a starting subcarrier of a random access channel, t represents a time position of the random access resource; and φ represents an offset relative to the frequency position of the random access resource. determining (S303, S403) a frequency position of a random access resource based on a subcarrier offset and a resource block position of the random access resource; and sending (S304, S404) the random access signal to a network device at the frequency position of the random access resource, wherein the random access signal satisfies the following formula: s t = β PRACH ∑ k = 0 N ZC − 1 ∑ n = 0 N ZC − 1 x u , ν n . e − j 2 πnk N ZC . e j 2 π k + φ + Kk 0 Δƒ RA t − T CP , wherein s(t) is the random access signal; β PRACH is an amplitude adjustment factor of the random access signal, and is used to control transmit power of the random access signal; N ZC is a sequence length of a random access preamble; x u,v ( n ) represents a ZC sequence for generating the random access preamble; T CP represents a timelength of a cyclic prefix; Δ f RA represents a subcarrier spacing of the random access preamble; K = Δ f / Δ f RA , wherein Δ f represents a subcarrier spacing of an initial active uplink bandwidth part, IAU BWP, or an uplink access bandwidth part, BWP; k 0 is a frequency position of a starting subcarrier of a random access channel, t represents a time position of the random access resource; and φ represents an offset relative to the frequency position of the random access resource.
A method of monitoring a property of a coating of an at least partially solid dosage form during a coating process forming the coating of the solid dosage form, the method comprising forming the coating on the solid dosage form, during the forming of the coating of the solid dosage form, simultaneously monitoring the property of the coating of the solid dosage form in process, wherein the property of the coating of the solid dosage form is monitored by a monitoring apparatus using low coherence interferometry, moving the solid dosage form during the coating process into a field of view of the monitoring apparatus. forming the coating on the solid dosage form, during the forming of the coating of the solid dosage form, simultaneously monitoring the property of the coating of the solid dosage form in process, wherein the property of the coating of the solid dosage form is monitored by a monitoring apparatus using low coherence interferometry, moving the solid dosage form during the coating process into a field of view of the monitoring apparatus.
A holding jig holding a pillar-like body , which has a tubular jig base member , and a tubular expansion/contraction member disposed on an inner peripheral surface side of the tubular jig base member , wherein both end sides of the tubular expansion/contraction member are fixed to both end sides of the tubular jig base member along the whole periphery, a configuration of the inner peripheral surface of the tubular expansion/contraction member is smaller than a surface configuration of the pillar-like body to be held, and the configuration of the inner peripheral surface of the tubular jig base member is larger than the surface configuration of the pillar-like body to be held, and wherein the inner peripheral surface of the tubular jig base member is provided with a groove and a concave portion along the whole periphery to receive the expansion/contraction member, and the tubular expansion/contraction member is a rubber tube, characterized in that the tubular expansion/contraction member is always disposed away from the tubular jig base member in the groove.
A receiver for detecting and recovering data from Orthogonal Frequency Division Multiplexed, OFDM, symbols, the OFDM symbols including within a repeating time frame a signalling OFDM symbol and one or more data bearing OFDM symbols, the signalling OFDM symbol including a pre-amble guard interval and a post-amble guard interval , the pre-amble and the post-amble guard intervals being formed by copying samples from a useful part of the signalling OFDM symbol in the time domain, the receiver comprising a demodulator which is arranged in operation to detect a signal representing the OFDM symbols, and to generate a sampled version of the OFDM symbols in the time domain, a signalling and guard detector, which includes a correlator comprising a first branch which forms pre-amble correlated samples from the pre-amble of the signalling OFDM symbol, and includes a first moving averaging filter , which is arranged to form pre-amble average correlated samples by averaging a value of a plurality of the pre-amble correlated samples within a moving window, the plurality of pre-amble correlated samples averaged within the moving window corresponding to a temporal length of the post-amble, Tb, a second branch which forms post-amble correlated samples from the post-amble of the signalling OFDM symbol, and includes a second moving averaging filter , which is arranged to form post-amble average correlated samples by averaging a value of a plurality of the post-amble correlated samples within a moving window, the plurality of post-amble correlated samples averaged within the moving window corresponding to a temporal length of the pre-amble, Tc, a combiner , which is arranged to combine the averaged pre-amble correlated samples and the averaged post-amble correlated samples to form output correlation samples, and a post processing detector which is arranged to detect the signalling OFDM symbol from the output correlation samples to identify a timing of the frame from which the data bearing OFDM symbols can be identified.
A method, comprising: in response to loading a device image for a programmable integrated circuit, IC, determining, using a processing unit on the programmable IC , trace data for the device image, wherein the device image specifies a reconfigurable module loaded as part of partial reconfiguration of the programmable IC , wherein the device image includes a reconfigurable partition identifier and a reconfigurable module identifier; storing, by the processing unit , the trace data for the device image in a memory ; in response to unloading the device image, recording the unloading of the device image in the trace data in the memory ; and storing the reconfigurable partition identifier and the reconfigurable module identifier as part of the trace data. in response to loading a device image for a programmable integrated circuit, IC, determining, using a processing unit on the programmable IC , trace data for the device image, wherein the device image specifies a reconfigurable module loaded as part of partial reconfiguration of the programmable IC , wherein the device image includes a reconfigurable partition identifier and a reconfigurable module identifier; storing, by the processing unit , the trace data for the device image in a memory ; in response to unloading the device image, recording the unloading of the device image in the trace data in the memory ; and storing the reconfigurable partition identifier and the reconfigurable module identifier as part of the trace data.
A process for the acetylation of wood chip in a refiner system including a feed hopper component, a non-steam digester component and a refiner (defibrator) component, the process comprising contacting the chip with an acetylating fluid between the hopper and the digester components within a connecting multi-zone compression feed screw, characterised in that the connecting feed screw comprises a three pressure zone feed screw for admitting the acetylation fluid, wherein the three pressure zone feed screw comprises a first compression zone, a second zone where the pressure is released and acetylating fluid is admitted and a third compression zone.
An isochronous receiver system comprising: a single flux quantum, SFQ, receiver configured to receive a data signal (PLS) from a transmission line and to convert the data signal (PLS) to an SFQ signal (SFQ RX ); and a converter system configured to convert the SFQ signal (SFQ RX ) to a reciprocal quantum logic, RQL, signal (RQL 0 , RQL 90 , RQL 180 , RQL 270 ) and to phase-align the RQL signal (RQLo, RQL 90 , RQL 180 , RQL 270 ) with a sampling phase of an AC clock signal (CLK). a single flux quantum, SFQ, receiver configured to receive a data signal (PLS) from a transmission line and to convert the data signal (PLS) to an SFQ signal (SFQ RX ); and a converter system configured to convert the SFQ signal (SFQ RX ) to a reciprocal quantum logic, RQL, signal (RQL 0 , RQL 90 , RQL 180 , RQL 270 ) and to phase-align the RQL signal (RQLo, RQL 90 , RQL 180 , RQL 270 ) with a sampling phase of an AC clock signal (CLK).
A security document , comprising: a security substrate ; a security device , wherein the security device is a micro-optic security device comprising an array of micro-sized image elements located on or within a polymeric substrate, and an array of focusing elements, and wherein the array of micro-sized image elements and the array of focusing elements are configured such that when the array of micro-sized image elements is viewed through the array of focusing elements, one or more synthetic images are projected; and a structural weakness element , wherein the security device is coupled to the security substrate, wherein the structural weakness element is integrated with at least the security device, wherein the structural weakness element comprises a part of the array of image elements, the structural weakness element defining an anti-harvesting area and a bulk area , wherein structural weakness encompasses a portion of the security document or the security document that included applied defects which induce structural or optical failure within the security device and cause the security device to become inoperative in response to attempts to harvest the security device from the security document; and wherein the anti-harvesting area has one or more of structural fidelity or optical fidelity with the bulk area, wherein the optical fidelity encompasses of an optically variable effect observed in the anti-harvesting area and that observed in the bulk area and wherein the structural fidelity encompasses an alignment of the anti-harvesting area to the bulk area or the security substrate. a security substrate ; a security device , wherein the security device is a micro-optic security device comprising an array of micro-sized image elements located on or within a polymeric substrate, and an array of focusing elements, and wherein the array of micro-sized image elements and the array of focusing elements are configured such that when the array of micro-sized image elements is viewed through the array of focusing elements, one or more synthetic images are projected; and a structural weakness element , wherein the security device is coupled to the security substrate, wherein the structural weakness element is integrated with at least the security device, wherein the structural weakness element comprises a part of the array of image elements, the structural weakness element defining an anti-harvesting area and a bulk area , wherein structural weakness encompasses a portion of the security document or the security document that included applied defects which induce structural or optical failure within the security device and cause the security device to become inoperative in response to attempts to harvest the security device from the security document; and wherein the anti-harvesting area has one or more of structural fidelity or optical fidelity with the bulk area, wherein the optical fidelity encompasses of an optically variable effect observed in the anti-harvesting area and that observed in the bulk area and wherein the structural fidelity encompasses an alignment of the anti-harvesting area to the bulk area or the security substrate.
A computer-implemented method comprising: receiving (S201), from a first device, a first destination (A) of a first passenger and a first route strategy including a first rider destination hierarchy for a ride sharing algorithm, wherein a rider destination hierarchy is a rule that dictates how multiple destinations of multiple passengers received from multiple devices are to be ordered along a generated route; receiving (S203), from a second device, a second destination (B) of a second passenger and a second route strategy including a second rider destination hierarchy for the ride sharing algorithm, wherein the second destination is different from the first destination and the second route strategy is different from the first route strategy; and generating (S025), using the ride sharing algorithm, a route to the first destination and the second destination, wherein the route is based on the first rider destination hierarchy, the second rider destination hierarchy or a combination thereof. receiving (S201), from a first device, a first destination (A) of a first passenger and a first route strategy including a first rider destination hierarchy for a ride sharing algorithm, wherein a rider destination hierarchy is a rule that dictates how multiple destinations of multiple passengers received from multiple devices are to be ordered along a generated route; receiving (S203), from a second device, a second destination (B) of a second passenger and a second route strategy including a second rider destination hierarchy for the ride sharing algorithm, wherein the second destination is different from the first destination and the second route strategy is different from the first route strategy; and generating (S025), using the ride sharing algorithm, a route to the first destination and the second destination, wherein the route is based on the first rider destination hierarchy, the second rider destination hierarchy or a combination thereof.