mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining an acoustic parameter of interest of a downhole fluid using an acoustic assembly comprising a single solid acoustic transmission medium having a face immersed in the downhole fluid , the method comprising: using characteristics of a plurality of acoustic pulse reflections from a solid-liquid interface at the face of the solid acoustic transmission medium to estimate the parameter of interest in near real-time, wherein each acoustic pulse reflection of the plurality of acoustic pulse reflections has a corresponding unique angle of reflection with respect to the face , wherein the characteristics comprise a corresponding reflection amplitude and the corresponding unique angle of reflection for each acoustic pulse reflection, and wherein the parameter of interest is estimated by determining corresponding values for [(1 - r21) / (1 + r21)] 2 and [1 / sin 2 φ] for the plurality of acoustic pulse reflections, wherein r21 is the corresponding reflection amplitude and φ is the corresponding unique angle of reflection. using characteristics of a plurality of acoustic pulse reflections from a solid-liquid interface at the face of the solid acoustic transmission medium to estimate the parameter of interest in near real-time, wherein each acoustic pulse reflection of the plurality of acoustic pulse reflections has a corresponding unique angle of reflection with respect to the face , wherein the characteristics comprise a corresponding reflection amplitude and the corresponding unique angle of reflection for each acoustic pulse reflection, and wherein the parameter of interest is estimated by determining corresponding values for [(1 - r21) / (1 + r21)] 2 and [1 / sin 2 φ] for the plurality of acoustic pulse reflections, wherein r21 is the corresponding reflection amplitude and φ is the corresponding unique angle of reflection.
A computer-implemented method, comprising: receiving, by a management system , information indicative of the physical topology of computer systems (504-510) that are coupled together, wherein the computer systems have different topologies; receiving a request to instantiate a virtual machine , the request indicating a characteristic for the virtual machine ; setting a size of a virtual NUMA node to be the same or smaller than an average NUMA node of the coupled computer systems; setting a virtual NUMA ratio to a median NUMA ratio or greater than the highest NUMA ratio detected in the coupled computer systems; wherein the NUMA ratio is a cost ratio in processor cycles between accessing remote or local memory; determining, based on the physical topology of the computer systems (504-510), the characteristic for the virtual machine , and the size of a virtual NUMA node, a number of virtual NUMA nodes for the virtual machine that is needed to build the virtual machine having the desired characteristics; selecting a computer system of the coupled computer systems, and sending a request to the computer system of the coupled computer systems, the request directing the computer system to instantiate the virtual machine having the determined number of virtual NUMA nodes; generating the NUMA ratio of the virtual NUMA nodes (606-608); and reporting the NUMA ratio of the virtual NUMA nodes (606-608) to a guest operating system to be used by the guest operating system to make thread scheduling decisions. receiving, by a management system , information indicative of the physical topology of computer systems (504-510) that are coupled together, wherein the computer systems have different topologies; receiving a request to instantiate a virtual machine , the request indicating a characteristic for the virtual machine ; setting a size of a virtual NUMA node to be the same or smaller than an average NUMA node of the coupled computer systems; setting a virtual NUMA ratio to a median NUMA ratio or greater than the highest NUMA ratio detected in the coupled computer systems; wherein the NUMA ratio is a cost ratio in processor cycles between accessing remote or local memory; determining, based on the physical topology of the computer systems (504-510), the characteristic for the virtual machine , and the size of a virtual NUMA node, a number of virtual NUMA nodes for the virtual machine that is needed to build the virtual machine having the desired characteristics; selecting a computer system of the coupled computer systems, and sending a request to the computer system of the coupled computer systems, the request directing the computer system to instantiate the virtual machine having the determined number of virtual NUMA nodes; generating the NUMA ratio of the virtual NUMA nodes (606-608); and reporting the NUMA ratio of the virtual NUMA nodes (606-608) to a guest operating system to be used by the guest operating system to make thread scheduling decisions.
A method of restoring a degraded frame resulting from reconstruction of a source frame, the method comprising: generating, using restoration parameters, one or more guide tiles for a degraded tile of the degraded frame, wherein each guide tile is generated by guided image filtering; determining one or more projection parameters for a projection operation, the projection operation relating differences between a source tile of the source frame and the degraded tile to difference terms, each difference term defining differences between a respective guide tile of the one or more guide tiles and the degraded tile, wherein the projection operation comprises a respective projection parameter for each respective difference term, wherein the projection parameters are determined so that the reconstructed tile has pixel values close to the pixel values of collocated pixels of the source tile, wherein the difference between a reconstructed tile and the degraded tile is a linear combination of the difference terms, wherein a coefficient of each difference term in the linear combination is the respective projection parameter; and encoding, in an encoded bitstream, the restoration parameters and the one or more projection parameters. generating, using restoration parameters, one or more guide tiles for a degraded tile of the degraded frame, wherein each guide tile is generated by guided image filtering; determining one or more projection parameters for a projection operation, the projection operation relating differences between a source tile of the source frame and the degraded tile to difference terms, each difference term defining differences between a respective guide tile of the one or more guide tiles and the degraded tile, wherein the projection operation comprises a respective projection parameter for each respective difference term, wherein the projection parameters are determined so that the reconstructed tile has pixel values close to the pixel values of collocated pixels of the source tile, wherein the difference between a reconstructed tile and the degraded tile is a linear combination of the difference terms, wherein a coefficient of each difference term in the linear combination is the respective projection parameter; and encoding, in an encoded bitstream, the restoration parameters and the one or more projection parameters.
A cartridge assembly for use with a drug delivery device, the cartridge assembly comprising: a cartridge holder designed for being connected with a drug delivery mechanism; and a cartridge comprising a proximal end and a distal end , and being fitted with a retention cap ; wherein a main body of the cartridge is positionally fixed with respect to axial movement or with respect to axial and rotational movement by means of mechanical interaction of the retention cap with the cartridge holder when the cartridge is in the assembled position and the cartridge and the cartridge holder are configured to be fixed to each other in a predetermined rotational position, characterized in that said retention cap being fitted to the distal end of the cartridge comprises at least one cartridge coding feature at a proximal end of the retention cap , the at least one cartridge coding feature being configured to affix said cartridge to said cartridge holder in the predetermined rotational position by the mating of said cartridge coding feature with a corresponding coding feature on said cartridge holder , wherein the rotational position is chosen out of one or two possible predetermined rotational positions. a cartridge holder designed for being connected with a drug delivery mechanism; and a cartridge comprising a proximal end and a distal end , and being fitted with a retention cap ; wherein a main body of the cartridge is positionally fixed with respect to axial movement or with respect to axial and rotational movement by means of mechanical interaction of the retention cap with the cartridge holder when the cartridge is in the assembled position and the cartridge and the cartridge holder are configured to be fixed to each other in a predetermined rotational position, characterized in that said retention cap being fitted to the distal end of the cartridge comprises at least one cartridge coding feature at a proximal end of the retention cap , the at least one cartridge coding feature being configured to affix said cartridge to said cartridge holder in the predetermined rotational position by the mating of said cartridge coding feature with a corresponding coding feature on said cartridge holder , wherein the rotational position is chosen out of one or two possible predetermined rotational positions.
A wireless power transmission apparatus , comprising: a communication/control unit configured to perform a negotiation for a first available power indicator with a wireless power reception apparatus; and a power conversion unit configured to transmit a wireless power to the wireless power reception apparatus by generating magnetic coupling in a primary coil according to the first available power indicator, wherein the communication/control unit is configured to: receive a received power packet indicating a power received by the wireless power reception apparatus from the wireless power reception apparatus, transmit a bit pattern response requesting a communication for changing of the first available power indicator to the wireless power reception apparatus, receive a response signal indicating being ready to receive the communication from the wireless power reception apparatus, and transmit a packet related to a second available power indicator to the wireless power reception apparatus. a communication/control unit configured to perform a negotiation for a first available power indicator with a wireless power reception apparatus; and a power conversion unit configured to transmit a wireless power to the wireless power reception apparatus by generating magnetic coupling in a primary coil according to the first available power indicator, wherein the communication/control unit is configured to: receive a received power packet indicating a power received by the wireless power reception apparatus from the wireless power reception apparatus, transmit a bit pattern response requesting a communication for changing of the first available power indicator to the wireless power reception apparatus, receive a response signal indicating being ready to receive the communication from the wireless power reception apparatus, and transmit a packet related to a second available power indicator to the wireless power reception apparatus.
A method of information selection in a wireless communication system performed in a propagator node , comprising: receiving an information advertisement signal from a distributor node over a neighbor interface module associated with said distributor node, wherein the information advertisement signal identifies an information object that is stored in said distributor node; extracting a distributor tag identifying said distributor node from the information advertisement signal; storing said distributor tag and an identifier of said neighbor interface module in a distributor routing table ; receiving a selection request signal, wherein said selection request signal identifies information requested by a selector node ; determining all or a portion of said selection request signal matches all or a portion of said distributor tag stored in said distributor routing table and determining that said neighbor interface module is associated with said distributor tag; and forwarding all or a portion of said selection request signal to said distributor node over said neighbor interface module based on the determining. receiving an information advertisement signal from a distributor node over a neighbor interface module associated with said distributor node, wherein the information advertisement signal identifies an information object that is stored in said distributor node; extracting a distributor tag identifying said distributor node from the information advertisement signal; storing said distributor tag and an identifier of said neighbor interface module in a distributor routing table ; receiving a selection request signal, wherein said selection request signal identifies information requested by a selector node ; determining all or a portion of said selection request signal matches all or a portion of said distributor tag stored in said distributor routing table and determining that said neighbor interface module is associated with said distributor tag; and forwarding all or a portion of said selection request signal to said distributor node over said neighbor interface module based on the determining.
Method for operating a technical facility that has at least one mobile system, wherein a base map of the technical facility is generated, said base map comprising information on at least one accessible region and at least one blocked region ; and a correction map of the technical facility is generated, said correction map comprising information on at least one accessible region and at least one blocked region ; and the base map is overlaid with the correction map; and at least one metric feature of the base map is replaced with a metric feature of the correction map if a discrepancy is identified between a metric feature of the base map and a metric feature of the correction map, characterised in that the base map and the correction map are each generated in the form of a graph that describes the at least one accessible region , wherein the graph comprises at least a first node point , a second node point and at least one link (V) between the first node point and the second node point as topological features, wherein a link (V) has a link direction (R) and a link length (L); and the graph of the base map is overlaid with the graph of the correction map. that has at least one mobile system, wherein a base map of the technical facility is generated, said base map comprising information on at least one accessible region and at least one blocked region ; and a correction map of the technical facility is generated, said correction map comprising information on at least one accessible region and at least one blocked region ; and the base map is overlaid with the correction map; and at least one metric feature of the base map is replaced with a metric feature of the correction map if a discrepancy is identified between a metric feature of the base map and a metric feature of the correction map, characterised in that the base map and the correction map are each generated in the form of a graph that describes the at least one accessible region , wherein the graph comprises at least a first node point , a second node point and at least one link (V) between the first node point and the second node point as topological features, wherein a link (V) has a link direction (R) and a link length (L); and the graph of the base map is overlaid with the graph of the correction map.
A heating assembly for heating an aerosol-forming substrate (71, 72, 73; 171, 172, 173), the heating assembly comprising - a cup-shaped heating chamber for receiving the aerosol-forming substrate (71, 72, 73; 171, 172, 173) to be heated, wherein the heating chamber is formed at least by a sleeve portion and a bottom portion that is arranged at a distal end of the heating chamber opposite to an open proximal end of the heating chamber ; - a first electrical heater including at least one first heating element circumferentially arranged around the sleeve portion for heating the sleeve portion at least to a first temperature and - a second electrical heater including at least one second heating element arranged at an outer end face of the bottom portion for heating the bottom portion at least to a second temperature. - a cup-shaped heating chamber for receiving the aerosol-forming substrate (71, 72, 73; 171, 172, 173) to be heated, wherein the heating chamber is formed at least by a sleeve portion and a bottom portion that is arranged at a distal end of the heating chamber opposite to an open proximal end of the heating chamber ; - a first electrical heater including at least one first heating element circumferentially arranged around the sleeve portion for heating the sleeve portion at least to a first temperature and - a second electrical heater including at least one second heating element arranged at an outer end face of the bottom portion for heating the bottom portion at least to a second temperature.
A method for performing Transmission Time Interval, TTI, bundling by a user equipment, UE, in a wireless access system, the method comprising: receiving information indicating a bundling size from a Base Station, BS, by the UE; initially transmitting a Voice over Internet Protocol, VoIP, packet in a bundle of 4 consecutive TTIs by the UE; automatically retransmitting the packet in a predetermined number of TTIs starting in the next TTI following the initial bundle of 4 TTIs without receiving Acknowledgement/Negative Acknowledgement, ACK/NACK, information for the packet from the BS by the UE; receiving ACK/NACK information for the packet from the BS by the UE 4 TTIs after transmitting the initial bundle of 4 TTIs; and retransmitting a 4-TTI bundle of the packet by Hybrid Automatic Repeat and reQuest, HARQ, by the UE, upon receipt of NACK information from the BS, wherein the HARQ retransmission period between the initial 4-TTI bundle and the HARQ-retransmitted 4-TTI bundle is 16 TTIs, and wherein the predetermined number of TTIs is determined according to the bundling size. receiving information indicating a bundling size from a Base Station, BS, by the UE; initially transmitting a Voice over Internet Protocol, VoIP, packet in a bundle of 4 consecutive TTIs by the UE; automatically retransmitting the packet in a predetermined number of TTIs starting in the next TTI following the initial bundle of 4 TTIs without receiving Acknowledgement/Negative Acknowledgement, ACK/NACK, information for the packet from the BS by the UE; receiving ACK/NACK information for the packet from the BS by the UE 4 TTIs after transmitting the initial bundle of 4 TTIs; and retransmitting a 4-TTI bundle of the packet by Hybrid Automatic Repeat and reQuest, HARQ, by the UE, upon receipt of NACK information from the BS, wherein the HARQ retransmission period between the initial 4-TTI bundle and the HARQ-retransmitted 4-TTI bundle is 16 TTIs, and wherein the predetermined number of TTIs is determined according to the bundling size.
Use of a lithium silicate glass ceramic or a lithium silicate glass which comprise the following components Component wt.-% SiO 2 56.0 to 72.0 Li 2 O 13.0 to 18.0 Rb 2 O 3.0 to 9.0 Al 2 O 3 2.0 to 5.0 P 2 O 5 2.0 to 6.0 ZrO 2 0 to 4.5, for coating a substrate selected from oxide ceramics, metals and alloys.
Process for the stabilisation of hydrosulphite, characterised in that it provides the mixing of said hydrosulphite with one or more acids, chosen among 4-aminobenzoic acid, 4-hydroxybenzoic acid or a 4-alkyl benzoic acid and with an ammonium, alkaline or alkaline-earth salt of oxalic acid.
An apparatus having an all-in-one port , the all-in-one port , comprising: a first configuration pin ; a second configuration pin ; logic configured to: enter into a debug accessory mode based on a presence of a first signal on the first configuration pin and second signal on the second configuration pin ; and in the debug accessory mode, provide an orientation indication by altering the first signal on the first configuration pin , wherein the logic is configured to alter the first signal on the first configuration pin by: reducing a voltage level of the first signal on the first configuration pin ; or increasing the voltage level of the first signal on the first configuration pin . a first configuration pin ; a second configuration pin ; logic configured to: enter into a debug accessory mode based on a presence of a first signal on the first configuration pin and second signal on the second configuration pin ; and in the debug accessory mode, provide an orientation indication by altering the first signal on the first configuration pin , enter into a debug accessory mode based on a presence of a first signal on the first configuration pin and second signal on the second configuration pin ; and in the debug accessory mode, provide an orientation indication by altering the first signal on the first configuration pin , wherein the logic is configured to alter the first signal on the first configuration pin by: reducing a voltage level of the first signal on the first configuration pin ; or increasing the voltage level of the first signal on the first configuration pin . reducing a voltage level of the first signal on the first configuration pin ; or increasing the voltage level of the first signal on the first configuration pin .
A shaft and sleeve assembly of a gas turbine engine comprises: an outer shaft extending about an engine central longitudinal axis and having a radially inner shaft surface , the radially inner shaft surface having a shaft groove defined therein; a sleeve disposed radially inboard of the radially inner shaft surface, the sleeve including a sleeve groove defined in a radially outer sleeve surface , the sleeve groove formed at an axial location between a first axial end and a second axial end of the sleeve; a retaining element (128; 140; 144) installed in the shaft groove and the sleeve groove to retain the sleeve relative to the outer shaft ; characterised in that the shaft and sleeve assembly further comprises: an inner shaft disposed radially inboard of the sleeve; wherein the sleeve includes one or more sleeve openings formed therein; and wherein the sleeve groove is axially aligned with the one or more sleeve openings, an outer shaft opening in the outer shaft, and an inner shaft opening in the inner shaft allowing for coolant circulation therethrough. an outer shaft extending about an engine central longitudinal axis and having a radially inner shaft surface , the radially inner shaft surface having a shaft groove defined therein; a sleeve disposed radially inboard of the radially inner shaft surface, the sleeve including a sleeve groove defined in a radially outer sleeve surface , the sleeve groove formed at an axial location between a first axial end and a second axial end of the sleeve; a retaining element (128; 140; 144) installed in the shaft groove and the sleeve groove to retain the sleeve relative to the outer shaft ; characterised in that the shaft and sleeve assembly further comprises: an inner shaft disposed radially inboard of the sleeve; wherein the sleeve includes one or more sleeve openings formed therein; and wherein the sleeve groove is axially aligned with the one or more sleeve openings, an outer shaft opening in the outer shaft, and an inner shaft opening in the inner shaft allowing for coolant circulation therethrough. an inner shaft disposed radially inboard of the sleeve; wherein the sleeve includes one or more sleeve openings formed therein; and wherein the sleeve groove is axially aligned with the one or more sleeve openings, an outer shaft opening in the outer shaft, and an inner shaft opening in the inner shaft allowing for coolant circulation therethrough.