mhurhangee/patent-ind-claim-en huggingface dataset:
A method of extending a private cloud to a public cloud , the method performed by an orchestrator in the private cloud and comprising: establishing a virtual private network between the private cloud and the public cloud , wherein the private cloud is behind a firewall; receiving one or more access control lists provisioned by the private cloud ; determining contracts between an end point group of the private cloud and an end point group of the public cloud based on the one or more access control lists, wherein an end point group comprises one or more end points that belong to the same cloud , and wherein each end point is a network connection point identified by a media access control address; extending the end point group of the private cloud to the end point group of the public cloud across the virtual private network by configuring security and connectivity rules for data communication between end points joining the end point groups , as specified in the contracts ; and monitoring and troubleshooting the end point group of the public cloud and associated public end points of the public cloud . establishing a virtual private network between the private cloud and the public cloud , wherein the private cloud is behind a firewall; receiving one or more access control lists provisioned by the private cloud ; determining contracts between an end point group of the private cloud and an end point group of the public cloud based on the one or more access control lists, wherein an end point group comprises one or more end points that belong to the same cloud , and wherein each end point is a network connection point identified by a media access control address; extending the end point group of the private cloud to the end point group of the public cloud across the virtual private network by configuring security and connectivity rules for data communication between end points joining the end point groups , as specified in the contracts ; and monitoring and troubleshooting the end point group of the public cloud and associated public end points of the public cloud .
Arrangement for storing electrical energy in an electrochemical cell, consisting of a stratification of a liquid anode , a liquid electrolyte and a liquid cathode , wherein the anode and the cathode each consist of a liquid metal, semi-metal or a liquid metal or semi-metal alloy, and wherein the arrangement comprises an electrically insulating inner element in the form of an inner tube or inner rod, characterized in that the inner element extends in the stratification along the vertical axis of the arrangement through the anode , the electrolyte and the cathode , wherein the liquid anode , the liquid electrolyte and the liquid cathode are arranged outside the inner element .
A microcapsule composition comprising an encapsulating polymer and a fragrance encapsulated by the encapsulating polymer, wherein the encapsulating polymer comprises a polyurea polymer, wherein the polyurea polymer is formed from a mixture of polyisocyanates and a crosslinking agent in the presence of a dispersant, wherein the polyisocyanates are water-insoluble and have the following structure: in which n has a value of 0 to 6, wherein the crosslinking agent contains a diamine or polyamine, wherein the dispersant comprises a sodium salt of alkyl naphthalene sulfonate condensate, and wherein the composition is further modified with a carboxymethyl cellulose polymer. wherein the encapsulating polymer comprises a polyurea polymer, wherein the polyurea polymer is formed from a mixture of polyisocyanates and a crosslinking agent in the presence of a dispersant, wherein the polyisocyanates are water-insoluble and have the following structure: in which n has a value of 0 to 6, wherein the crosslinking agent contains a diamine or polyamine, wherein the dispersant comprises a sodium salt of alkyl naphthalene sulfonate condensate, and wherein the composition is further modified with a carboxymethyl cellulose polymer.
An echo cancellation method based on delay estimation, comprising: receiving a microphone signal and a reference signal, and preprocessing the microphone signal and the reference signal to transform the reference signal and the microphone signal from a time domain into a frequency domain; wherein the echo cancellation method is characterized in further comprising: determining , in the preprocessed microphone signal and the preprocessed reference signal, frequency point signals with non-linearity in a current echo cancellation scenario; calculating a current delay estimation value based on frequency point signals without non-linearity in the microphone signal and the reference signal; shifting the reference signal based on the current delay estimation value; and updating an adaptive filter based on the preprocessed microphone signal and the shifted reference signal, to perform echo cancellation. receiving a microphone signal and a reference signal, and preprocessing the microphone signal and the reference signal to transform the reference signal and the microphone signal from a time domain into a frequency domain; wherein the echo cancellation method is characterized in further comprising: determining , in the preprocessed microphone signal and the preprocessed reference signal, frequency point signals with non-linearity in a current echo cancellation scenario; calculating a current delay estimation value based on frequency point signals without non-linearity in the microphone signal and the reference signal; shifting the reference signal based on the current delay estimation value; and updating an adaptive filter based on the preprocessed microphone signal and the shifted reference signal, to perform echo cancellation. determining , in the preprocessed microphone signal and the preprocessed reference signal, frequency point signals with non-linearity in a current echo cancellation scenario; calculating a current delay estimation value based on frequency point signals without non-linearity in the microphone signal and the reference signal; shifting the reference signal based on the current delay estimation value; and updating an adaptive filter based on the preprocessed microphone signal and the shifted reference signal, to perform echo cancellation.
A thermosettable structural adhesive composition comprising (a) an epoxy compound; (b) a thermoplastic compound; (c) an epoxy curing agent; (d) at least one mineral filler, wherein the at least one mineral filler is capable of absorbing water, wherein the at least one mineral filler is selected from the group consisting of metal oxides and metal hydroxides; and (e) at least one component comprising at least one epoxy moiety and at least one linear or branched alkyl group. (a) an epoxy compound; (b) a thermoplastic compound; (c) an epoxy curing agent; (d) at least one mineral filler, wherein the at least one mineral filler is capable of absorbing water, wherein the at least one mineral filler is selected from the group consisting of metal oxides and metal hydroxides; and (e) at least one component comprising at least one epoxy moiety and at least one linear or branched alkyl group.
A system for flexible sectorization in a wireless communication system, comprising: a wireless base station; a plurality of first communication link sector generation units coupled to the wireless base station; and at least one second communication link sector generation unit coupled to the wireless base station, each the first communication link sector generation unit and the second communication link sector generation unit configured to generate at least one associated sector for radio coverage, wherein a number of first communication link sector generation units is greater than a number of second communication link sector generation units, wherein the plurality of first communication link sector generation units are configured to generate a first downlink sector unicast radio coverage pattern for unicast transmission and the at least one second communication link sector generation unit is configured to generate a second downlink sector multicast or broadcast radio coverage pattern for multicast or broadcast transmission. a wireless base station; a plurality of first communication link sector generation units coupled to the wireless base station; and at least one second communication link sector generation unit coupled to the wireless base station, each the first communication link sector generation unit and the second communication link sector generation unit configured to generate at least one associated sector for radio coverage, wherein a number of first communication link sector generation units is greater than a number of second communication link sector generation units, wherein the plurality of first communication link sector generation units are configured to generate a first downlink sector unicast radio coverage pattern for unicast transmission and the at least one second communication link sector generation unit is configured to generate a second downlink sector multicast or broadcast radio coverage pattern for multicast or broadcast transmission.
An integrated valve assembly having a radially compressed delivery configuration and a radially expanded deployed configuration, the integrated valve assembly comprising: an anchor stent having an anchor frame ; and a valve component including a valve frame and a prosthetic valve coupled to the valve frame ; and a tether component having a first end coupled to the anchor stent and a second end coupled to the valve component , wherein in the delivery configuration the tether component extends in a first direction from the anchor stent to the valve component , and in the deployed configuration the tether component extends in a second direction from the anchor stent to the valve component , wherein the second direction is generally opposite the first direction, characterized in that the anchor stent is configured to be deployed within the annulus of an aortic valve and wherein in the radially expanded deployed configuration, a proximal portion of the valve frame is deployed within the anchor stent , wherein the valve component , when deployed, is configured to engage an inner wall of the anchor frame and the sinotubular junction of a patient. an anchor stent having an anchor frame ; and a valve component including a valve frame and a prosthetic valve coupled to the valve frame ; and a tether component having a first end coupled to the anchor stent and a second end coupled to the valve component , wherein in the delivery configuration the tether component extends in a first direction from the anchor stent to the valve component , and in the deployed configuration the tether component extends in a second direction from the anchor stent to the valve component , wherein the second direction is generally opposite the first direction, characterized in that the anchor stent is configured to be deployed within the annulus of an aortic valve and wherein in the radially expanded deployed configuration, a proximal portion of the valve frame is deployed within the anchor stent , wherein the valve component , when deployed, is configured to engage an inner wall of the anchor frame and the sinotubular junction of a patient.
A compound according to Formula I: or a pharmaceutically acceptable salt thereof, wherein: X is O; R 1 is or R 1 is C 1-4 alkyl optionally substituted with 1-6 independent halo substituents; or R 1 is phenyl, pyridinyl, or pyrazolyl, each optionally substituted with 1-5 independent halo, trifluoromethyl, (trifluoromethyl)thio, trifluoromethoxy, 1,1,1,3,3,3,-hexafluoro-2-hydroxypropan-2-yl, or substituents; m is 0 or 1; the dotted line indicates an optional double bond when m=1; R 2 is halo, -OH, -CN, -OCH 3 , -O-S(O) 2 CH 2 CH 3 , or phenyl optionally substituted with 0-5 independent halo, trifluoromethoxy substituents; R 3 is n is 2 or 3 carbon chain; R 4 is H, OH, OCH 3 , or -O-S(O) 2 CH 2 CH 3 ; X is O; R 1 is or R 1 is C 1-4 alkyl optionally substituted with 1-6 independent halo substituents; or R 1 is phenyl, pyridinyl, or pyrazolyl, each optionally substituted with 1-5 independent halo, trifluoromethyl, (trifluoromethyl)thio, trifluoromethoxy, 1,1,1,3,3,3,-hexafluoro-2-hydroxypropan-2-yl, or substituents; m is 0 or 1; the dotted line indicates an optional double bond when m=1; R 2 is halo, -OH, -CN, -OCH 3 , -O-S(O) 2 CH 2 CH 3 , or phenyl optionally substituted with 0-5 independent halo, trifluoromethoxy substituents; R 3 is n is 2 or 3 carbon chain; R 4 is H, OH, OCH 3 , or -O-S(O) 2 CH 2 CH 3 ;
A sensor electric wire, comprising: a first internal conductor covered with a piezoelectric material; a second internal conductor covering an external periphery of the piezoelectric material; and an external shield conductor surrounding the first internal conductor and the second internal conductor, wherein the piezoelectric material forms a first insulating coating that is arranged between the first internal conductor and the second internal conductor , and a second insulating coating is arranged between the second internal conductor and the external shield conductor , wherein a sheath is provided to cover an external periphery of the sensor electric wire , characterized in that the sensor electric wire further comprises a conductor member having the same potential as the external shield conductor , and in that at one end of the sensor electric wire , an external side of ends of the first internal conductor and the second internal conductor is surrounded by the external shield conductor or the conductor member , wherein the conductor member covers an end face of the sensor electric wire at the one end of the sensor electric wire , and wherein the one end of the sensor electric wire including the end face of the sensor electric wire is covered with a cover member up to an end of the sheath . a first internal conductor covered with a piezoelectric material; a second internal conductor covering an external periphery of the piezoelectric material; and an external shield conductor surrounding the first internal conductor and the second internal conductor, wherein the piezoelectric material forms a first insulating coating that is arranged between the first internal conductor and the second internal conductor , and a second insulating coating is arranged between the second internal conductor and the external shield conductor , wherein a sheath is provided to cover an external periphery of the sensor electric wire , characterized in that the sensor electric wire further comprises a conductor member having the same potential as the external shield conductor , and in that at one end of the sensor electric wire , an external side of ends of the first internal conductor and the second internal conductor is surrounded by the external shield conductor or the conductor member , wherein the conductor member covers an end face of the sensor electric wire at the one end of the sensor electric wire , and wherein the one end of the sensor electric wire including the end face of the sensor electric wire is covered with a cover member up to an end of the sheath .
A method of evaluating the fertility potential of a semen sample from a subject, comprising: a. measuring the static oxidation-reduction potential (sORP) of the sample from the subject as an sORP/sperm cell concentration value; b. comparing the measured sORP to a reference value; and c. classifying the fertility potential of the semen sample as high or low based on the comparison. a. measuring the static oxidation-reduction potential (sORP) of the sample from the subject as an sORP/sperm cell concentration value; b. comparing the measured sORP to a reference value; and c. classifying the fertility potential of the semen sample as high or low based on the comparison.
A formation method, comprising: forming a pattern by folding a sheet of material ; forming a first mold by depositing mold material with the pattern ; separating the pattern from the first mold ; and forming a cellular core for a structured panel by depositing core material with the first mold . forming a pattern by folding a sheet of material ; forming a first mold by depositing mold material with the pattern ; separating the pattern from the first mold ; and forming a cellular core for a structured panel by depositing core material with the first mold .
A method for sending a preamble sequence, wherein the method comprises: determining a transmit power for sending a preamble sequence, wherein the transmit power meets the following formula: Power = min P max , PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter + PL , wherein Power is the determined transmit power, P max is a maximum transmit power of user equipment, PL is obtained by estimating according to a downlink path loss, and PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter PREAMBLE is a target receive power of the preamble sequence, and sending the preamble sequence according to the determined transmit power through a preamble sequence resource pool i for coverage enhancement random access, characterized in that : wherein PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter = p r e a m b l e I n i t i a l R e c e i v e d T arg etPower + DELTA _ PREAMBLE − X i + preamble _ transmission _ counter − 1 ∗ powerRampingStep , and preambleInitialReceivedTargetPower is an initial target receive power of the preamble sequence, DELTA_PREAMBLE is a power offset based on a format of the preamble sequence, powerRampingStep is a power ramp step, preamble_transmission_counter is a repetition count for transmitting the preamble sequence, where preamble_transmission_counter ∈ {1, 2,...,preambleTansMax}, and preambleTransMax is a maximum transmission count of the preamble sequence, and X i is a power offset corresponding to the preamble sequence resource pool i. determining a transmit power for sending a preamble sequence, wherein the transmit power meets the following formula: Power = min P max , PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter + PL , wherein Power is the determined transmit power, P max is a maximum transmit power of user equipment, PL is obtained by estimating according to a downlink path loss, and PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter PREAMBLE is a target receive power of the preamble sequence, and sending the preamble sequence according to the determined transmit power through a preamble sequence resource pool i for coverage enhancement random access, characterized in that : wherein PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter = p r e a m b l e I n i t i a l R e c e i v e d T arg etPower + DELTA _ PREAMBLE − X i + preamble _ transmission _ counter − 1 ∗ powerRampingStep , and preambleInitialReceivedTargetPower is an initial target receive power of the preamble sequence, DELTA_PREAMBLE is a power offset based on a format of the preamble sequence, powerRampingStep is a power ramp step, preamble_transmission_counter is a repetition count for transmitting the preamble sequence, where preamble_transmission_counter ∈ {1, 2,...,preambleTansMax}, and preambleTransMax is a maximum transmission count of the preamble sequence, and X i is a power offset corresponding to the preamble sequence resource pool i.
An electronic device comprising: - a first processing device that is adapted to execute a process based on first received data of received data including the first received data and second received data; - a second processing device that is adapted to execute a process based on the second received data unprocessable by the first processing device ; and - a power state control unit that is adapted to control a power state of the electronic device , the power state including a normal state and a power-saving state, the second processing device being adapted to ensure the execution of the process based on the received data in the normal state, the power-saving state being adapted to at least temporarily stop supplying the second processing device with electric power, while the first processing device being adapted to ensure the execution of the process based on the first received data, wherein, when a temporary wake up of the electric power supply to the second processing device is intermittently repeated in the power-saving state, the power state control unit is adapted to determine a time interval from a termination of the temporary wake up to a start of a subsequent temporary wake up based on a specific condition during the temporary wake up, wherein the power state control unit is adapted to execute the determination based on whether or not a packet of a protocol that does not execute delivery confirmation is included in the received data, and wherein the power state control unit is adapted to reduce the time interval, when the received data received during the current temporary wake up includes a packet of the protocol that does not execute delivery confirmation, compared with the time interval, when the received data received during the current temporary wake up does not include a packet of the protocol that does not execute delivery confirmation in order to prevent a transmission delay of a response packet to the packet of the protocol that does not execute delivery confirmation while ensuring transmission of the response packet when the electronic device executes a subsequent temporary wake up, even when the current temporary wake up terminates before transmission of the response packet. - a first processing device that is adapted to execute a process based on first received data of received data including the first received data and second received data; - a second processing device that is adapted to execute a process based on the second received data unprocessable by the first processing device ; and - a power state control unit that is adapted to control a power state of the electronic device , the power state including a normal state and a power-saving state, the second processing device being adapted to ensure the execution of the process based on the received data in the normal state, the power-saving state being adapted to at least temporarily stop supplying the second processing device with electric power, while the first processing device being adapted to ensure the execution of the process based on the first received data,
A method, comprising: determining that a computing device has entered into a corrupted state, the computing device storing system data and information about a plurality of changes made to the system data; after determining that the computing device has entered into the corrupted state, identifying one or more untrusted changes to the system data from the plurality of changes made to the system data, wherein the one or more untrusted changes were made by one or more untrusted entities; resetting the one or more untrusted changes to the system data to one or more default values; and after resetting the one or more untrusted changes to the system data to the one or more default values, initializing the computing device. determining that a computing device has entered into a corrupted state, the computing device storing system data and information about a plurality of changes made to the system data; after determining that the computing device has entered into the corrupted state, identifying one or more untrusted changes to the system data from the plurality of changes made to the system data, wherein the one or more untrusted changes were made by one or more untrusted entities; resetting the one or more untrusted changes to the system data to one or more default values; and after resetting the one or more untrusted changes to the system data to the one or more default values, initializing the computing device.