mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing a buffer status report in a mobile communication system, the method comprising: configuring, by a user equipment UE configured in dual connectivity with a first evolved node-B, eNodeB, base station and a second eNodeB base station , a first medium access control, MAC, entity associated with the first eNodeB base station ; configuring, by the UE , a second MAC entity associated with the second eNodeB base station , triggering, by the first MAC entity of the UE , a first buffer status report if first data is available in uplink associated with the first MAC entity of the first eNodeB base station and transmitting the triggered first buffer status report to the first eNodeB base station ; and triggering, by the second MAC entity of the UE , a second buffer status report if second data is available in uplink associated with the second MAC entity of the second eNodeB base station and transmitting the triggered second buffer status report to the second eNodeB base station , wherein the UE establishes a radio resource control, RRC, connection, and wherein the RRC connection is established with only the first eNodeB base station . configuring, by a user equipment UE configured in dual connectivity with a first evolved node-B, eNodeB, base station and a second eNodeB base station , a first medium access control, MAC, entity associated with the first eNodeB base station ; configuring, by the UE , a second MAC entity associated with the second eNodeB base station , triggering, by the first MAC entity of the UE , a first buffer status report if first data is available in uplink associated with the first MAC entity of the first eNodeB base station and transmitting the triggered first buffer status report to the first eNodeB base station ; and triggering, by the second MAC entity of the UE , a second buffer status report if second data is available in uplink associated with the second MAC entity of the second eNodeB base station and transmitting the triggered second buffer status report to the second eNodeB base station , wherein the UE establishes a radio resource control, RRC, connection, and wherein the RRC connection is established with only the first eNodeB base station .
A method comprising: • segmenting multiple nodes of a communication system into multiple clustering plans, each clustering plan comprising multiple clusters that do not overlap with one another within that clustering plan, at least one of the clusters of one clustering plan overlapping with at least one of the clusters of at least one other clustering plan; and • assigning different portions of network resources to the different clustering plans (S314). • segmenting multiple nodes of a communication system into multiple clustering plans, each clustering plan comprising multiple clusters that do not overlap with one another within that clustering plan, at least one of the clusters of one clustering plan overlapping with at least one of the clusters of at least one other clustering plan; and • assigning different portions of network resources to the different clustering plans (S314).
A method of forming a multi-colored image on a substrate that includes a thermochromic material capable of producing at least two different colors, the method comprising: heating individually selected pixels (120, 121; 371, 372, 373; 571, 572, 574) of the thermochromic material that correspond to the image to predetermined temperatures, each predetermined temperature corresponding to a predetermined color shift of the thermochromic material; and while heating the individually selected pixels, flooding an area that includes the individually selected pixels with an amount of UV radiation sufficient to at least partially polymerize the thermochromic material, wherein a color of each individually selected pixel is determined by a predetermined temperature to which the pixel is heated and the amount of UV radiation to which the pixel is exposed. heating individually selected pixels (120, 121; 371, 372, 373; 571, 572, 574) of the thermochromic material that correspond to the image to predetermined temperatures, each predetermined temperature corresponding to a predetermined color shift of the thermochromic material; and while heating the individually selected pixels, flooding an area that includes the individually selected pixels with an amount of UV radiation sufficient to at least partially polymerize the thermochromic material, wherein a color of each individually selected pixel is determined by a predetermined temperature to which the pixel is heated and the amount of UV radiation to which the pixel is exposed.
A computer-implemented method of performing anisotropic texture filtering, the method comprising: generating one or more parameters describing an elliptical footprint in texture space ; performing isotropic filtering at each of a plurality of sampling points in an ellipse to be sampled, the ellipse to be sampled based on the elliptical footprint ; and combining results of the isotropic filtering at each of the plurality of sampling points to generate a combination result by a sequence of linear interpolations, characterized in that each linear interpolation in the sequence of linear interpolations comprises blending a result of a previous linear interpolation in the sequence with the isotropic filtering result for one or more of the plurality of sampling points, the one or more of the plurality of sampling points for a linear interpolation being closer to a midpoint of the major axis of the elliptical footprint than the one or more of the plurality of sampling points for the previous linear interpolation in the sequence . generating one or more parameters describing an elliptical footprint in texture space ; performing isotropic filtering at each of a plurality of sampling points in an ellipse to be sampled, the ellipse to be sampled based on the elliptical footprint ; and combining results of the isotropic filtering at each of the plurality of sampling points to generate a combination result by a sequence of linear interpolations, characterized in that each linear interpolation in the sequence of linear interpolations comprises blending a result of a previous linear interpolation in the sequence with the isotropic filtering result for one or more of the plurality of sampling points, the one or more of the plurality of sampling points for a linear interpolation being closer to a midpoint of the major axis of the elliptical footprint than the one or more of the plurality of sampling points for the previous linear interpolation in the sequence .
A computing device for trusted Input/Output (I/O) attestation and verification, the computing device comprising: a hardware attestation module to (i) collect hardware attestation information associated with one or more statically attached hardware I/O components of the computing device wherein the hardware I/O components are associated with a trusted I/O usage protected with a cryptographic engine of the computing device , and (ii) verify the hardware attestation information; a secure enumeration module to (i) securely enumerate one or more dynamically attached hardware I/O components of the computing device in response to verification of the hardware attestation information, and (ii) load one or more trusted software components in response to secure enumeration of the one or more dynamically attached hardware I/O components ; and a software attestation module to (i) collect software attestation information associated with the trusted software components in response to loading of the trusted software components, wherein the software attestation information is indicative of identity and topology of the trusted software components, and (ii) verify the software attestation information. a hardware attestation module to (i) collect hardware attestation information associated with one or more statically attached hardware I/O components of the computing device wherein the hardware I/O components are associated with a trusted I/O usage protected with a cryptographic engine of the computing device , and (ii) verify the hardware attestation information; a secure enumeration module to (i) securely enumerate one or more dynamically attached hardware I/O components of the computing device in response to verification of the hardware attestation information, and (ii) load one or more trusted software components in response to secure enumeration of the one or more dynamically attached hardware I/O components ; and a software attestation module to (i) collect software attestation information associated with the trusted software components in response to loading of the trusted software components, wherein the software attestation information is indicative of identity and topology of the trusted software components, and (ii) verify the software attestation information.
A sensor device management method in which measurement data measured by a sensor device is obtained and managed by a management server , comprising: holding a parameter of the sensor device and change management information related to a change in the parameter in the management server , and transmitting the changed parameter and the change management information to the sensor device , holding the parameter and the change management information transmitted from the management server in the sensor device , and transmitting the change management information to the management server together with the measurement data, and collating in the management server the received change management information and preliminarily-held change management information related to the sensor device to determine the change in the parameter on the basis of a result of the collation. holding a parameter of the sensor device and change management information related to a change in the parameter in the management server , and transmitting the changed parameter and the change management information to the sensor device , holding the parameter and the change management information transmitted from the management server in the sensor device , and transmitting the change management information to the management server together with the measurement data, and collating in the management server the received change management information and preliminarily-held change management information related to the sensor device to determine the change in the parameter on the basis of a result of the collation.
A method for sending parameters of a precoder from a wireless device to a network node , in a wireless communication system, the method comprising: sending , to the network node, a subset of beams selected from a plurality of orthogonal beams and power levels of the selected subset of beams, for a first frequency granularity; and sending , to the network node, phases of the selected subset of beams, for a second frequency granularity, wherein the selected beams, the power levels and the phases of the selected subset of beams are part of the parameters of the precoder, wherein the first frequency granularity corresponds to an entire frequency bandwidth and the second granularity corresponds to a frequency subband within the frequency bandwidth, and wherein the selected subset of beams is selected in polarization pairs, each polarization pair corresponding to a dual polarized, DP, beam. sending , to the network node, a subset of beams selected from a plurality of orthogonal beams and power levels of the selected subset of beams, for a first frequency granularity; and sending , to the network node, phases of the selected subset of beams, for a second frequency granularity, wherein the selected beams, the power levels and the phases of the selected subset of beams are part of the parameters of the precoder, wherein the first frequency granularity corresponds to an entire frequency bandwidth and the second granularity corresponds to a frequency subband within the frequency bandwidth, and wherein the selected subset of beams is selected in polarization pairs, each polarization pair corresponding to a dual polarized, DP, beam.
A thermally protective material comprising: a flame resistant, thermally stable textile substrate , wherein the thermal stability of the textile substrate was determined according to ASTM D751 at a temperature of 265°C; an active insulation comprising a continuous layer of a polymer resin-expandable graphite mixture adjacent to the flame resistant, thermally stable textile substrate ; wherein the polymer resin of the polymer resin-expandable graphite mixture has a melt or softening temperature of less than 340°C; wherein the polymer resin is breathable; and wherein the thickness of the active insulation increases by at least 200% after 90 seconds in a convective oven heated to 300°C. a flame resistant, thermally stable textile substrate , wherein the thermal stability of the textile substrate was determined according to ASTM D751 at a temperature of 265°C; an active insulation comprising a continuous layer of a polymer resin-expandable graphite mixture adjacent to the flame resistant, thermally stable textile substrate ; wherein the polymer resin of the polymer resin-expandable graphite mixture has a melt or softening temperature of less than 340°C; wherein the polymer resin is breathable; and wherein the thickness of the active insulation increases by at least 200% after 90 seconds in a convective oven heated to 300°C.
A filter system for the treatment of contaminated liquids, in particular contaminated water such as interstitial water, which is treated in the oil industry, having a filter container in which a filter bed with filter granulate as filter material is provided and which has a pipe socket at the top, in which a retaining member for the filter material is provided, which is an substantially vertically arranged filter screen which is at least partially arranged outside the filter container and encloses a hollow cavity, characterized in that the retaining member can be traversed from the inside to the outside during backwashing, that the cavity is open at the bottom, that the filter screen is located in a tube such that between the tube and the filter screen an annular space remains which is closed at the top and at the bottom and communicates with a backwash liquid outlet opening , that the tube is surrounded by an outer tube which is connected to the pipe socket in a sealed manner such that there is another annular space between the tube and the outer tube and the pipe socket , respectively, which forms a channel for feeding the backwashing liquid into a head space of the retaining member , which head space connects the channel with the interior of the filter screen , whereas the annular space between the pipe and the filter screen , on the other hand, is separated, such that retained filter material falls back into the filter bed .
Extendable lattice type crane boom for a crane, the boom comprising a lattice type base boom section and at least one lattice type telescopic boom section , wherein the at least one telescopic boom section is adjustable with respect to the base boom section between a retracted position, in which the telescopic boom section is substantially inside of the base boom section, and an extended position, in which the telescopic boom section is at least partly outside of the base boom section, further comprising a locking system configured to lock the at least one telescopic boom section with respect to the base boom section in at least the extended position, wherein said locking system includes a plurality of pins , each pin being configured to extend, in at least the extended position of the boom, at least partly through a corresponding pin receiving aperture provided in one of the base boom section and the at least one telescopic boom section, wherein the plurality of pins comprise at least one primary pin adapted to be received in a corresponding primary pin receiving apertures , and at least one secondary pin adapted to be received in a corresponding secondary pin receiving aperture , characterized in that the at least one primary pin receiving aperture is egg-shaped or droplet shaped such that the pin can be received at the larger part of the said aperture and then, upon further locking of the connection, the pin moves to the smaller part of the said aperture as to align and lock the pin in the aperture such that a size of the at least one primary pin receiving aperture is substantially larger than a cross-sectional dimension of a corresponding primary pin for engaging in the primary pin receiving aperture.
Pivot arbor of a balance, of a pallet or of an escape pinion for a timepiece movement comprising at least one metal pivot at at least one of the ends thereof, characterized in that the metal is a non-magnetic aluminium alloy so as to limit the sensitivity of the pivot to magnetic fields, and in that at least the outer surface of said pivot is deep-hardened to a predetermined depth relative to the core of the pivot arbor.
A method for synthesizing at least one compound of the following formula (I) or one of the salts thereof, where R represents a COOH, CH 2 OH or CHO group, Characterized in that but-3-ene-1,2-diol (BDO) is subjected to oxidation in the presence of a catalyst, said catalyst comprising an active phase based on at least one noble metal selected from palladium, gold, silver, platinum, rhodium, osmium, ruthenium and iridium, and a support containing base sites and selected from hydrotalcites (HT), brucites, hydroxyapatite Ca 10 (PO 4 ) 6 (OH) 2 , tricalcium phosphate Ca 3 (PO 4 ) 2 , calcium hydrogenphosphate CaHPO 4 (0-2)H 2 O, calcium diphosphate Ca 2 P 2 O 7 , octacalcium phosphate Ca 8 H 2 (PO 4 ) 6 .5H 2 O, tetracalcium phosphate Ca 4 (PO 4 ) 2 O, amorphous calcium phosphates Ca 3 (PO 4 ) 2 .nH 2 O, phosphates, diphosphates, and hydrogenphosphates of calcium, cesium, lithium, rubidium, potassium, magnesium, barium, cerium, lanthanum, aluminum, zinc, copper, and mixtures thereof. where R represents a COOH, CH 2 OH or CHO group, Characterized in that but-3-ene-1,2-diol (BDO) is subjected to oxidation in the presence of a catalyst, said catalyst comprising an active phase based on at least one noble metal selected from palladium, gold, silver, platinum, rhodium, osmium, ruthenium and iridium, and a support containing base sites and selected from hydrotalcites (HT), brucites, hydroxyapatite Ca 10 (PO 4 ) 6 (OH) 2 , tricalcium phosphate Ca 3 (PO 4 ) 2 , calcium hydrogenphosphate CaHPO 4 (0-2)H 2 O, calcium diphosphate Ca 2 P 2 O 7 , octacalcium phosphate Ca 8 H 2 (PO 4 ) 6 .5H 2 O, tetracalcium phosphate Ca 4 (PO 4 ) 2 O, amorphous calcium phosphates Ca 3 (PO 4 ) 2 .nH 2 O, phosphates, diphosphates, and hydrogenphosphates of calcium, cesium, lithium, rubidium, potassium, magnesium, barium, cerium, lanthanum, aluminum, zinc, copper, and mixtures thereof.
Retroviral particle comprising a protein derived from the Gag polyprotein, an envelope protein, optionally an integrase and at least two encapsidated non-viral RNAs, the encapsidated non-viral RNAs each comprising an RNA sequence of interest bound to an encapsidation sequence, each encapsidation sequence being recognized by a heterologous binding domain introduced into the protein derived from the Gag polyprotein and/or into the integrase, in which the at least two encapsidated non-viral RNAs are distinguished by their sequence of interest: - at least one of said sequences of interest of the encapsidated non-viral RNAs comprising a part coding a nuclease selected from the group constituted by the nucleases associated with the CRISPR system, and - the sequence of interest of the other encapsidated non-viral RNA corresponding to at least one recognition element of a guide RNA. - at least one of said sequences of interest of the encapsidated non-viral RNAs comprising a part coding a nuclease selected from the group constituted by the nucleases associated with the CRISPR system, and - the sequence of interest of the other encapsidated non-viral RNA corresponding to at least one recognition element of a guide RNA.
A device for retracting of a flexible hose of a central vacuum system, comprising at least one housing , having a substantially parallelepiped shape, configured for an arrangement chosen between flush-mounted in a wall and exposed, said housing comprises a rigid tubing , associated with a vacuum apparatus by means of a tubing , which has a cross-section and a length which are suitable to accommodate internally a flexible hose that can be extracted from said housing by pulling from the terminal end of said hose that faces outward through an opening of said housing , said hose being retractable into said rigid tubing by virtue of the action of the negative pressure established by the suction applied by said apparatus, wherein one end of the rigid tubing ends in a box which can be accessed from the outside of the housing and from which the flexible hose is extracted when needed while the other end ends with a connector of the type of a branch which allows the connection of the rigid tubing to the tubing of the system that arrives from the vacuum apparatus, and characterized in that the box is provided with two cover doors (8 and 9) to allow the extraction and use of the flexible hose in each of the two spaces separated by the wall in which the housing is flush-mounted.
A sensor system comprising a plurality of photoelectric sensor units of different sensor types that are coupled in such a manner that signal transmission among the sensor units is possible, wherein sensor units of different sensor types differ from each other in a wavelength and/or a frequency of the projected light, and wherein there is an overlap in operation times of different sensor types, wherein each of the sensor units is adapted to retain type information indicating a sensor type of the respective sensor unit , and to set a unique identification number of the respective sensor unit by signal transmission among the sensor units , each of the sensor units is adapted to project light after a delay time (T1 - T6), determined according to the identification number of the respective sensor unit , elapses with a synchronization signal as a starting point, the synchronization signal being transmitted with a transmission period (T0) from one of the plurality of sensor units that has a specific identification number, and the delay time (T1 - T6) of each of the sensor units is determined such that an actual light projecting period of the respective sensor unit matches with a predetermined light projecting period (TFA, TFB), which is determined individually for each sensor type, and such that the delay time (T1-T6) differs from the delay time (T1 - T6) of any other sensor unit of the same sensor type.
A portable, battery-powered hydraulic power unit for hydraulic rescue tools , in particular for spreading or cutting tools, comprising at least one hydraulic pump , a hydraulic tank , a compensation device for hydraulic fluid, a manually operated hydraulic control valve , an electromechanical interface for on-demand coupling and decoupling of at least one battery pack , a mechanical-hydraulic interface for connecting a hydraulic tool , and an electric motor operable by the electrical energy of the battery pack for driving the hydraulic pump , characterized in that the electric motor is formed by a disc motor whose axial length extending in parallel to the longitudinal axis of its output shaft is shorter than its outer diameter .