mhurhangee/patent-ind-claim-en huggingface dataset:
A system for controlling temperature in an enclosed space using multiple modes of operation, the system comprising: an air-to-air heat exchanger (AAHX) arranged in a flow path of process air between a process air inlet and outlet and in a flow path of scavenger air between a scavenger air inlet and outlet , the AAHX comprising at least one of a counter-flow flat-plate heat exchanger and a sensible wheel ; a direct evaporative cooler (DEC) arranged in the flow path of the scavenger air between the AAHX and the scavenger air inlet to selectively provide evaporative cooling to the scavenger air in a second mode of operation and a third mode of operation; and a direct expansion (DX) system configured to selectively provide additional cooling to the process air exiting the AAHX in the third mode of operation, wherein the system is configured to selectively operate in a first mode of operation when the AAHX sufficiently conditions the process air without the DEC and DX coil, and wherein the system is configured to switch to the second and third modes as additional cooling is required to condition the process air. an air-to-air heat exchanger (AAHX) arranged in a flow path of process air between a process air inlet and outlet and in a flow path of scavenger air between a scavenger air inlet and outlet , the AAHX comprising at least one of a counter-flow flat-plate heat exchanger and a sensible wheel ; a direct evaporative cooler (DEC) arranged in the flow path of the scavenger air between the AAHX and the scavenger air inlet to selectively provide evaporative cooling to the scavenger air in a second mode of operation and a third mode of operation; and a direct expansion (DX) system configured to selectively provide additional cooling to the process air exiting the AAHX in the third mode of operation, wherein the system is configured to selectively operate in a first mode of operation when the AAHX sufficiently conditions the process air without the DEC and DX coil, and wherein the system is configured to switch to the second and third modes as additional cooling is required to condition the process air.
A method to secure a user's interaction with a remotely accessible computerbased application, the method comprising the steps of: - collecting one or more sets of contextual data; - anonymizing the collected one or more sets of contextual data; - transferring the anonymized contextual data sets to an authentication server; - at the authentication server analyzing the received anonymized contextual data sets for authenticating the user; wherein the one or more sets of contextual data comprise values of one or more computable contextual data elements; wherein the step of anonymizing the collected one or more sets of contextual data comprises transforming a first value of at least one of said computable contextual data elements using a similarity preserving anonymization transformation, wherein the values of at least some of the anonymized contextual data are a function of the original values of the collected contextual data prior to anonymization and the value of a salt, wherein said similarity preserving anonymization transformation is parameterized by a parameter which is a function of said salt value, wherein the steps of collecting one or more sets of contextual data, anonymizing the collected one or more sets of contextual data and transferring the anonymized contextual data sets to an authentication server, are performed at a personal client computing device associated with said user, whereby said personal client computing device is physically distinct from said authentication server. - collecting one or more sets of contextual data; - anonymizing the collected one or more sets of contextual data; - transferring the anonymized contextual data sets to an authentication server; - at the authentication server analyzing the received anonymized contextual data sets for authenticating the user; wherein the one or more sets of contextual data comprise values of one or more computable contextual data elements; wherein the step of anonymizing the collected one or more sets of contextual data comprises transforming a first value of at least one of said computable contextual data elements using a similarity preserving anonymization transformation, wherein the values of at least some of the anonymized contextual data are a function of the original values of the collected contextual data prior to anonymization and the value of a salt, wherein said similarity preserving anonymization transformation is parameterized by a parameter which is a function of said salt value, wherein the steps of collecting one or more sets of contextual data, anonymizing the collected one or more sets of contextual data and transferring the anonymized contextual data sets to an authentication server, are performed at a personal client computing device associated with said user, whereby said personal client computing device is physically distinct from said authentication server.
A processor implemented method comprising: encoding a static knowledge graph pertaining to (i) an infrastructure being monitored, (ii) ambience and (iii) a data acquisition system configured to monitor the infrastructure in the form of a Qualitative Believe Network 'QBN' ; and iteratively performing inferencing of the QBN by: dynamically capturing observed state of one or more nodes constituting the QBN and propagating belief on an instance of the static knowledge graph ; identifying list of nodes with unobserved evidences in the QBN ; computing Quality of Observation 'QoO' for each of the nodes in the list ; selecting the node having a highest value of QoO ; obtaining vision based observation of the node having the highest value of QoO ; and assigning the vision based observation as current observed state to the node having the highest value of QoO ; until a stopping criterion is reached. encoding a static knowledge graph pertaining to (i) an infrastructure being monitored, (ii) ambience and (iii) a data acquisition system configured to monitor the infrastructure in the form of a Qualitative Believe Network 'QBN' ; and iteratively performing inferencing of the QBN by: dynamically capturing observed state of one or more nodes constituting the QBN and propagating belief on an instance of the static knowledge graph ; identifying list of nodes with unobserved evidences in the QBN ; computing Quality of Observation 'QoO' for each of the nodes in the list ; selecting the node having a highest value of QoO ; obtaining vision based observation of the node having the highest value of QoO ; and assigning the vision based observation as current observed state to the node having the highest value of QoO ; dynamically capturing observed state of one or more nodes constituting the QBN and propagating belief on an instance of the static knowledge graph ; identifying list of nodes with unobserved evidences in the QBN ; computing Quality of Observation 'QoO' for each of the nodes in the list ; selecting the node having a highest value of QoO ; obtaining vision based observation of the node having the highest value of QoO ; and assigning the vision based observation as current observed state to the node having the highest value of QoO ; until a stopping criterion is reached.
A folded Mach-Zehnder modulator , comprising: a beam splitter configured to split an input light beam into a plurality of light beams; a plurality of Mach-Zehnder devices configured to receive one or more of the plurality of light beams; a U-turn section configured to receive light beams from the Mach-Zehnder devices and to change the direction of the light beams by substantially 180 degrees, wherein the Mach-Zehnder devices are upstream of the U-turn section; and a polarisation management section configured to combine light beams received from the U-turn section and to output a polarisation multiplexed phase modulated light beam; wherein the modulator is formed from three or more discrete elements , and wherein the beam splitter, plurality of Mach-Zehnder devices and U-turn section are included in respective discrete elements of the modulator, the element containing the U-turn section being a second passive element configured only to change the direction of the light beams and containing no other components. a beam splitter configured to split an input light beam into a plurality of light beams; a plurality of Mach-Zehnder devices configured to receive one or more of the plurality of light beams; a U-turn section configured to receive light beams from the Mach-Zehnder devices and to change the direction of the light beams by substantially 180 degrees, wherein the Mach-Zehnder devices are upstream of the U-turn section; and a polarisation management section configured to combine light beams received from the U-turn section and to output a polarisation multiplexed phase modulated light beam; wherein the modulator is formed from three or more discrete elements , and wherein the beam splitter, plurality of Mach-Zehnder devices and U-turn section are included in respective discrete elements of the modulator, the element containing the U-turn section being a second passive element configured only to change the direction of the light beams and containing no other components.
An uplink information transmission method, comprising: receiving, by user equipment UE, configuration information sent by a base station, wherein the configuration information indicates a cell group configured for the UE by the base station; and sending , by the UE, uplink information to the base station by using the cell group; wherein the uplink information comprises uplink information of a first cell, and the sending, by the UE, uplink information to the base station by using the cell group comprises: determining , by the UE, whether a second cell is an available unlicensed spectrum cell; and if the second cell is an available unlicensed spectrum cell: sending, by the UE, the uplink information of the first cell to the base station by using the second cell; wherein the first cell is a cell in the cell group, and a second cell is another cell different from the first cell in the cell group. receiving, by user equipment UE, configuration information sent by a base station, wherein the configuration information indicates a cell group configured for the UE by the base station; and sending , by the UE, uplink information to the base station by using the cell group; wherein the uplink information comprises uplink information of a first cell, and the sending, by the UE, uplink information to the base station by using the cell group comprises: determining , by the UE, whether a second cell is an available unlicensed spectrum cell; and if the second cell is an available unlicensed spectrum cell: sending, by the UE, the uplink information of the first cell to the base station by using the second cell; wherein determining , by the UE, whether a second cell is an available unlicensed spectrum cell; and if the second cell is an available unlicensed spectrum cell: sending, by the UE, the uplink information of the first cell to the base station by using the second cell; wherein the first cell is a cell in the cell group, and a second cell is another cell different from the first cell in the cell group.
A mixture of compounds that consists essentially of: • calixarenes not containing sulphur and soluble in lubricant base oil, having the following general formula (I): wherein: a. R is selected from a linear or branched alkyl having a number of carbon atoms ranging from 4 to 40; b. n is the number of units of the calixarene cycle and is comprised in the range between 4 and 16; • a concentration of unreacted alkylphenol, expressed as a percentage by weight of the alkylphenol on the mixture of compounds, less than or equal to 2.0%, such alkylphenol having the general formula (II) wherein R is as described for formula (I); • a concentration of linear oligomers, expressed as a percentage by weight of linear oligomers on the mixture of compounds, less than or equal to 20%; said linear oligomers having the general formula (III) wherein R is as defined in formula (I), R1 and R2 are hydrogen, or the hydroxymethylene group (-CH 2 OH), and p is comprised between 0 and 6. • calixarenes not containing sulphur and soluble in lubricant base oil, having the following general formula (I): wherein: a. R is selected from a linear or branched alkyl having a number of carbon atoms ranging from 4 to 40; b. n is the number of units of the calixarene cycle and is comprised in the range between 4 and 16; a. R is selected from a linear or branched alkyl having a number of carbon atoms ranging from 4 to 40; b. n is the number of units of the calixarene cycle and is comprised in the range between 4 and 16; • a concentration of unreacted alkylphenol, expressed as a percentage by weight of the alkylphenol on the mixture of compounds, less than or equal to 2.0%, such alkylphenol having the general formula (II) wherein R is as described for formula (I); • a concentration of linear oligomers, expressed as a percentage by weight of linear oligomers on the mixture of compounds, less than or equal to 20%; said linear oligomers having the general formula (III) wherein R is as defined in formula (I), R1 and R2 are hydrogen, or the hydroxymethylene group (-CH 2 OH), and p is comprised between 0 and 6.
A dispersant composition for removing scales and solid deposits from a location selected from at least one of the inner walls of a reactor, the inner walls of pipelines, the inner walls of heat exchangers, valves and a catalyst bed, said composition comprising: • a dispersant salt in the range of 2 wt% to 60 wt%; • a hydrocarbon in the range of 40 wt% to 85 wt%; said hydrocarbon is selected from the group consisting of C 1 to C 50 carbon atom(s); and • an additive in the range of 0.1 wt% to 45 wt%; said additive is selected from ionic liquids, • wherein said dispersant salt is selected from a group consisting of linear alkyl benzene sulfonated isopropyl ammonium salt, dodecyl benzene sulfonated isopropyl ammonium salt and oleic acid isopropyl ammonium salt. • a dispersant salt in the range of 2 wt% to 60 wt%; • a hydrocarbon in the range of 40 wt% to 85 wt%; said hydrocarbon is selected from the group consisting of C 1 to C 50 carbon atom(s); and • an additive in the range of 0.1 wt% to 45 wt%; said additive is selected from ionic liquids, • wherein said dispersant salt is selected from a group consisting of linear alkyl benzene sulfonated isopropyl ammonium salt, dodecyl benzene sulfonated isopropyl ammonium salt and oleic acid isopropyl ammonium salt.
Rail-bound transport robot having an approximately box-like container open at the top for sporadic delivery of bulk material which has in its interior at least one compartment filled with the bulk material , wherein the transport robot has a loading space open at the top which is suitable for receiving the container , wherein the container on the base side rests on a longitudinal conveyer in the transport robot , characterised in that the longitudinal conveyer on the base side engages under opening valves (6a-6f) arranged on the container through which the bulk material flows out when the opening valves (6a-6f) are opened, wherein the longitudinal conveyer consists of displaceably driven telescopic arms which are arranged in the loading space of the transport robot , wherein the telescopic arms are retractable from the base side of the container in the region of an unloading station and thus release and unlock the opening valves (6a-6f) following one after another, whereby the opening valves (6a-6f) pivot out automatically due to gravity.
Electrical current transducer for measuring an electric current in a primary conductor, including a housing , a magnetic core surrounding a central aperture through which the primary conductor extends, and a magnetic field sensing device comprising connection terminals , the housing comprising a magnetic core receiving cavity in which the magnetic core is lodged and a connecting interface portion in which the magnetic field sensing is lodged, the transducer further comprising a conductor module comprising an insulating support with conductor mounting channels in which U shaped conductor coil portions are lodged, the insulating support further comprising latching elements configured to engage complementary latching shoulders provided on the housing for securing the conductor module around a branch of the current transducer, characterized in that the conductor mounting channels comprise clasp protrusions configured to clasp the U shaped conductor coil portions in the conductor mounting channels, a variable number of conductor coil portions being insertably mountable to the insulating support, the number selected according to the operating range of the current transducer.
Tyre tread for a heavy vehicle, which tread is intended to come into contact with the ground via a tread surface and comprises cuts delimiting rubber blocks that extend from a bottom surface in a radial direction (ZZ'), - at least one cut being a longitudinal groove , delimited by two opposite lateral walls that are connected to each other by a groove bottom , and extending over the entire length L of the tread in a longitudinal direction (XX'), - any longitudinal groove having a depth H, measured between the tread surface and the groove bottom in a radial direction (ZZ'), and a width W, measured between the two lateral walls in the tread surface in a transverse direction (YY'), - at least one longitudinal groove comprising a longitudinal distribution of protuberances that bear against one or the other of the lateral walls , two consecutive protuberances , which do not necessarily bear against the same lateral wall , being spaced apart by a pitch P, characterized in that any protuberance of the longitudinal groove extends radially outwards from the groove bottom over a height H' at least equal to 0.9 times the depth H of the groove and in that any protuberance of the longitudinal groove comprises a first portion , extending radially outwards from the groove bottom over a height H1, transversely towards the inside of the longitudinal groove from a lateral wall over a width W1 and longitudinally over a thickness T1, and a second portion , extending radially outwards from the first portion over a height H2, transversely towards the inside of the longitudinal groove from a lateral wall over a width W2 and longitudinally over a thickness T2, such that the following relationships are satisfied: H ′ = H1 + H2 0.6 * H ′ < = H2 < = 0.9 * H ′ W 2 > = 0.25 * W T2 < = min 3 mm; 1/3*T1 W1 > = 0.5 * W T1 > = H1 - at least one cut being a longitudinal groove , delimited by two opposite lateral walls that are connected to each other by a groove bottom , and extending over the entire length L of the tread in a longitudinal direction (XX'), - any longitudinal groove having a depth H, measured between the tread surface and the groove bottom in a radial direction (ZZ'), and a width W, measured between the two lateral walls in the tread surface in a transverse direction (YY'), - at least one longitudinal groove comprising a longitudinal distribution of protuberances that bear against one or the other of the lateral walls , two consecutive protuberances , which do not necessarily bear against the same lateral wall , being spaced apart by a pitch P,
A method for abstracting an enclave platform by a computing system comprising a processor and memory, the method comprising: receiving , by an enclave abstraction platform implemented on the computing system, a first request from an enclave , wherein the first request conforms to an enclave abstraction protocol, which is an abstraction of an enclave native protocol associated with an enclave native platform and which provides enclave primitives that are capable of being implemented on multiple native platforms; converting the first request to a second request, wherein the second request conforms to the enclave native protocol associated with the enclave native platform; and sending the second request to the enclave native platform. receiving , by an enclave abstraction platform implemented on the computing system, a first request from an enclave , wherein the first request conforms to an enclave abstraction protocol, which is an abstraction of an enclave native protocol associated with an enclave native platform and which provides enclave primitives that are capable of being implemented on multiple native platforms; converting the first request to a second request, wherein the second request conforms to the enclave native protocol associated with the enclave native platform; and sending the second request to the enclave native platform.
A surgical instrument comprising: a displacement member configured to translate within the surgical instrument; a motor coupled to the displacement member to translate the displacement member; a sensor configured to sense a thickness of a tissue grasped by an end effector; and a control circuit coupled to the motor and the sensor, the control circuit configured to: retrieve an expected thickness of the tissue; determine the thickness of the tissue via the sensor; and set a duty cycle for driving the motor, wherein the duty cycle depends on the thickness of the tissue relative to the expected thickness of the tissue; characterized in that the control circuit is configured to set the duty cycle to a default duty cycle when the thickness of the tissue is less than or equal to the expected thickness of the tissue and wherein if the thickness of the tissue is greater than the expected thickness of the tissue, the duty cycle is set so that the thicker the thickness of the tissue is relative to the expected thickness, the slower the displacement member is displaced. a displacement member configured to translate within the surgical instrument; a motor coupled to the displacement member to translate the displacement member; a sensor configured to sense a thickness of a tissue grasped by an end effector; and a control circuit coupled to the motor and the sensor, the control circuit configured to: retrieve an expected thickness of the tissue; determine the thickness of the tissue via the sensor; and set a duty cycle for driving the motor, wherein the duty cycle depends on the thickness of the tissue relative to the expected thickness of the tissue; characterized in that retrieve an expected thickness of the tissue; determine the thickness of the tissue via the sensor; and set a duty cycle for driving the motor, wherein the duty cycle depends on the thickness of the tissue relative to the expected thickness of the tissue; characterized in that the control circuit is configured to set the duty cycle to a default duty cycle when the thickness of the tissue is less than or equal to the expected thickness of the tissue and wherein if the thickness of the tissue is greater than the expected thickness of the tissue, the duty cycle is set so that the thicker the thickness of the tissue is relative to the expected thickness, the slower the displacement member is displaced.