mhurhangee/patent-ind-claim-en huggingface dataset:
A compound comprising the following structure: wherein: R 1 at each occurrence is independently selected from the group consisting of hydrogen, methyl and ethyl; X 1 and X 2 at each occurrence are independently selected from the group consisting of methylene, oxygen and sulfur; m is an integer of from 1 to 6; n is an integer of from 1 to 10; q, r, s, t, v are independently integers from 0 to 4, with the proviso that: (i) q and r cannot both be 0 at the same time; and (ii) s, t and v cannot all be 0 at the same time; Z is an oligonucleotide moiety represented by the following structure: wherein: Z 1 , Z 2 , Z 3 , Z 4 are independently at each occurrence oxygen or sulfur; and one of the bonds between P and Z 2 , and P and Z 3 is a single bond and the other bond is a double bond, R 2 is fluoro, and as depicted in Formula (I) is wherein: A 1 is hydrogen; a is an integer of 2 or 3; and b is an integer of 2 to 5. R 1 at each occurrence is independently selected from the group consisting of hydrogen, methyl and ethyl; X 1 and X 2 at each occurrence are independently selected from the group consisting of methylene, oxygen and sulfur; m is an integer of from 1 to 6; n is an integer of from 1 to 10; q, r, s, t, v are independently integers from 0 to 4, with the proviso that: (i) q and r cannot both be 0 at the same time; and (ii) s, t and v cannot all be 0 at the same time; (i) q and r cannot both be 0 at the same time; and (ii) s, t and v cannot all be 0 at the same time; Z is an oligonucleotide moiety represented by the following structure: wherein: Z 1 , Z 2 , Z 3 , Z 4 are independently at each occurrence oxygen or sulfur; and one of the bonds between P and Z 2 , and P and Z 3 is a single bond and the other bond is a double bond, R 2 is fluoro, and as depicted in Formula (I) is Z 1 , Z 2 , Z 3 , Z 4 are independently at each occurrence oxygen or sulfur; and one of the bonds between P and Z 2 , and P and Z 3 is a single bond and the other bond is a double bond, R 2 is fluoro, and as depicted in Formula (I) is wherein: A 1 is hydrogen; a is an integer of 2 or 3; and b is an integer of 2 to 5. A 1 is hydrogen; a is an integer of 2 or 3; and b is an integer of 2 to 5.
A fuel tank assembly comprising: a bladder defined between an exterior bladder wall and an interior bladder wall, wherein the interior bladder wall defines a volume for storing fuel, and wherein the exterior bladder wall is at least more rigid than the interior bladder wall; the interior bladder wall being comprised of an elastomeric material; and an inlet opening into the bladder defined between the exterior and interior bladder walls in order to permit a pressurized gas to be introduced within the bladder; in which the exterior and interior bladder walls are constructed so as to at least partially constrict if penetrated by a ballistic projectile; and a plurality of connectors ; characterised in that the plurality of connectors extend between the exterior and interior bladder walls; wherein the connectors are arranged to at least partially limit expansion of the bladder, and wherein each connector comprises a flange attached to the exterior bladder wall, a flange attached to the interior bladder wall and a fastener interconnecting the flanges; and in that the exterior bladder wall is comprised of a composite material, wherein the composite material is configured to generate fuzz if the exterior bladder wall is punctured which assists in at least partially sealing a puncture hole formed in the exterior bladder wall. a bladder defined between an exterior bladder wall and an interior bladder wall, wherein the interior bladder wall defines a volume for storing fuel, and wherein the exterior bladder wall is at least more rigid than the interior bladder wall; the interior bladder wall being comprised of an elastomeric material; and an inlet opening into the bladder defined between the exterior and interior bladder walls in order to permit a pressurized gas to be introduced within the bladder; in which the exterior and interior bladder walls are constructed so as to at least partially constrict if penetrated by a ballistic projectile; and a plurality of connectors ; characterised in that the plurality of connectors extend between the exterior and interior bladder walls; wherein the connectors are arranged to at least partially limit expansion of the bladder, and wherein each connector comprises a flange attached to the exterior bladder wall, a flange attached to the interior bladder wall and a fastener interconnecting the flanges; and in that the exterior bladder wall is comprised of a composite material, wherein the composite material is configured to generate fuzz if the exterior bladder wall is punctured which assists in at least partially sealing a puncture hole formed in the exterior bladder wall.
Illumination device, in particular for a motor vehicle , comprising a multi-aperture projection display having a lighting means for illuminating a multiplicity of image segments and an array of projection lenses , wherein each projection lens is assigned an image segment that is projected into a projection plane by way of the associated projection lens , as a result of which a light distribution (LV) is produced from all of the projected image segments in the projection plane , wherein the array of projection lenses comprises a plurality of subarrays , wherein a respective subarray contains the same projection lenses and the projection lenses of different subarrays differ from one another such that each subarray generates a surface area (FB, FB') in the light distribution (LV) and the size and/or position of the generated surface areas (FB, FB') varies between the subarrays , characterized in that all of the projection lenses of the array are based on a predetermined lens type with a prescribed shape and size, wherein the projection lenses of one or more of the subarrays each constitute a subregion of the predetermined lens type in the plan view thereof, wherein the subregion of the predetermined lens type is a region that is delineated by the area of the predetermined lens type in the plan view thereof by way of one or more lines.
A processor, comprising: a front end to receive an instruction; a decoder to decode the instruction; a core to execute the instruction, including: a first logic to retrieve a first index value from an array of indices, wherein the array of indices is to be located at an index base address in a memory based on a first parameter for the instruction; a second logic to compute a first element address, the first element address to identify a location at which to scatter a first data element in the memory based on: the first index value; and a data base address for a group of potential data element locations in the memory, the data base address based on a second parameter for the instruction; and a third logic to prefetch, to a cache, the contents of a location in the memory at the first element address, including: a fourth logic to perform a read-for-ownership access for a subsequent scatter; and a retirement unit to retire the instruction. a front end to receive an instruction; a decoder to decode the instruction; a core to execute the instruction, including: a first logic to retrieve a first index value from an array of indices, wherein the array of indices is to be located at an index base address in a memory based on a first parameter for the instruction; a second logic to compute a first element address, the first element address to identify a location at which to scatter a first data element in the memory based on: the first index value; and a data base address for a group of potential data element locations in the memory, the data base address based on a second parameter for the instruction; and a third logic to prefetch, to a cache, the contents of a location in the memory at the first element address, including: a fourth logic to perform a read-for-ownership access for a subsequent scatter; and a first logic to retrieve a first index value from an array of indices, wherein the array of indices is to be located at an index base address in a memory based on a first parameter for the instruction; a second logic to compute a first element address, the first element address to identify a location at which to scatter a first data element in the memory based on: the first index value; and a data base address for a group of potential data element locations in the memory, the data base address based on a second parameter for the instruction; and the first index value; and a data base address for a group of potential data element locations in the memory, the data base address based on a second parameter for the instruction; and a third logic to prefetch, to a cache, the contents of a location in the memory at the first element address, including: a fourth logic to perform a read-for-ownership access for a subsequent scatter; and a retirement unit to retire the instruction.
A vacuum insulating glass panel comprising: first and second sheets of glass spaced apart by a predetermined distance; a structured pillar unit disposed between the first and second sheets of glass , the predetermined distance being a height of the structured pillar unit ; and a wall interconnecting edges of the first and second sheets of glass , wherein space enclosed by the first and second sheets of glass and the wall is vacuumed to a predetermined pressure level, characterized in that the structured pillar unit comprises first and second skeleton layers , each skeleton layer comprising a plurality of hexagon skeletons , vertices of the hexagon skeletons of the first skeleton layer being interconnected with corresponding vertices of the hexagon skeletons of the second skeleton layer by column pipes , respectively. first and second sheets of glass spaced apart by a predetermined distance; a structured pillar unit disposed between the first and second sheets of glass , the predetermined distance being a height of the structured pillar unit ; and a wall interconnecting edges of the first and second sheets of glass , wherein space enclosed by the first and second sheets of glass and the wall is vacuumed to a predetermined pressure level, characterized in that the structured pillar unit comprises first and second skeleton layers , each skeleton layer comprising a plurality of hexagon skeletons , vertices of the hexagon skeletons of the first skeleton layer being interconnected with corresponding vertices of the hexagon skeletons of the second skeleton layer by column pipes , respectively.
A method of processing in real-time a data stream exchanged between a source (10.1;10.2) and a server over a telecommunications network , the method being carried out by a classifier , said classifier storing a set of at least one test, and a list of existing TCP connections, the method comprising: - receiving a TCP segment of the data stream, the TCP segment including data payload, said payload comprising at least a portion of a HTTP message; - identifying a first TCP connection to which the TCP segment belongs or creating a new first TCP connection for the received TCP segment; - detecting , in the portion of the HTTP message, presence of JSON data ; - in the case where JSON data is detected, building a tree graph based on the JSON data; - performing at least one test of the set on properties of the built tree graph to determine whether the JSON data is invalid; - if the JSON data is invalid, interrupting the first TCP connection; wherein if the JSON data is not classified as invalid after performing the at least one test, then a semantic classification based on JSON schema completed with JSON content specification is performed on the JSON data to classify the JSON data as valid or invalid.. - receiving a TCP segment of the data stream, the TCP segment including data payload, said payload comprising at least a portion of a HTTP message; - identifying a first TCP connection to which the TCP segment belongs or creating a new first TCP connection for the received TCP segment; - detecting , in the portion of the HTTP message, presence of JSON data ; - in the case where JSON data is detected, building a tree graph based on the JSON data; - performing at least one test of the set on properties of the built tree graph to determine whether the JSON data is invalid; - if the JSON data is invalid, interrupting the first TCP connection;
Sensor system with a receiving device with a receiving body for receiving at least one section of a sensor head of a rotational speed sensor and a fixing device , and with the rotational speed sensor with the following features: the cylindrical sensor head with a measuring tip ; and a tongue which is arranged on an external diameter of the sensor head , and which is formed to interact with a counter contour of the fixing device as a rotational lock for the rotational speed sensor , wherein the tongue of the rotational speed sensor is or can be coupled to the counter contour in a rotationally locked manner characterized in that and end surface of the tongue forms a flat stop surface for the counter contour , wherein the end surface forms an outermost free end of the tongue and is arranged to run transversely to the side surfaces of the tongue and connects them, wherein the flat stop surface serves as a single surface for rotationally fixed locking. the cylindrical sensor head with a measuring tip ; and a tongue which is arranged on an external diameter of the sensor head , and which is formed to interact with a counter contour of the fixing device as a rotational lock for the rotational speed sensor , wherein the tongue of the rotational speed sensor is or can be coupled to the counter contour in a rotationally locked manner characterized in that and end surface of the tongue forms a flat stop surface for the counter contour , wherein the end surface forms an outermost free end of the tongue and is arranged to run transversely to the side surfaces of the tongue and connects them, wherein the flat stop surface serves as a single surface for rotationally fixed locking.
A cutter element for an earth-boring tool , comprising a polycrystalline diamond (PCD) volume joined at an interface boundary to a cemented carbide substrate ; the PCD volume including a rake face opposite the interface boundary , an edge of the rake face being suitable as a cutting edge of the cutter element ; and the PCD volume comprising a plurality of strata (104;106) directly joined to each other at inter-strata boundaries, in which each of a first plurality of the strata comprises PCD material having a first diamond content; each of a second plurality of the strata comprises PCD material having a second diamond content; the second diamond content being greater than the first diamond content; and the strata of the first and second pluralities (104;106) disposed in an alternating arrangement with respect to each other; characterised in that : the strata configured and arranged such that a radial line (R) through the edge and a centroid (C1) of the interface boundary intersects, within a maximum distance of 1,000 microns from the edge , each of the inter-strata boundaries; wherein the respective tangent plane to each inter-strata boundary at the respective intersection is disposed relative to the radial line at no less than a minimum angle of 30°. a polycrystalline diamond (PCD) volume joined at an interface boundary to a cemented carbide substrate ; the PCD volume including a rake face opposite the interface boundary , an edge of the rake face being suitable as a cutting edge of the cutter element ; and the PCD volume comprising a plurality of strata (104;106) directly joined to each other at inter-strata boundaries, in which each of a first plurality of the strata comprises PCD material having a first diamond content; each of a second plurality of the strata comprises PCD material having a second diamond content; the second diamond content being greater than the first diamond content; and the strata of the first and second pluralities (104;106) disposed in an alternating arrangement with respect to each other; characterised in that : the strata configured and arranged such that a radial line (R) through the edge and a centroid (C1) of the interface boundary intersects, within a maximum distance of 1,000 microns from the edge , each of the inter-strata boundaries; wherein the respective tangent plane to each inter-strata boundary at the respective intersection is disposed relative to the radial line at no less than a minimum angle of 30°. the strata configured and arranged such that a radial line (R) through the edge and a centroid (C1) of the interface boundary intersects, within a maximum distance of 1,000 microns from the edge , each of the inter-strata boundaries; wherein the respective tangent plane to each inter-strata boundary at the respective intersection is disposed relative to the radial line at no less than a minimum angle of 30°.
A method for switching between media play devices, the method comprising: acquiring and displaying (S201), by a control device, a media play device list on a home area network, and determining a to-be-switched-to media play device according to a user operation; sending (S202), by the control device, a request message that carries a browsing history of a switched-from media play device of a media content page of a media server and device capability information of the to-be-switched-to media play device to a remote user interface server, RUI Server, wherein the device capability information comprises at least one of: a resolution and a screen size; receiving (S203), by the control device, a uniform resource identifier, URI, of a user interface, UI, sent by the RUI Server, wherein the UI is generated by the RUI Server according to the browsing history and the device capability information; and sending (S204), by the control device, the URI to the to-be-switched-to media play device. acquiring and displaying (S201), by a control device, a media play device list on a home area network, and determining a to-be-switched-to media play device according to a user operation; sending (S202), by the control device, a request message that carries a browsing history of a switched-from media play device of a media content page of a media server and device capability information of the to-be-switched-to media play device to a remote user interface server, RUI Server, wherein the device capability information comprises at least one of: a resolution and a screen size; receiving (S203), by the control device, a uniform resource identifier, URI, of a user interface, UI, sent by the RUI Server, wherein the UI is generated by the RUI Server according to the browsing history and the device capability information; and sending (S204), by the control device, the URI to the to-be-switched-to media play device.
A high-performance PPS fiber structure, wherein the PPS fiber structure is a woven fabric made from PPS fibers in 0.1 to 12 μm cross sectional diameter, the maximum pore size of the PPS fiber structure is 20 μm or smaller, the average pore size of the PPS fiber structure is 5 μm or smaller, and pores in 6 μm or smaller diameter account for 90% or above of all the pores in the fiber structure, the warp yarns and weft yarns that form the PPS fiber structure are PPS staple yarns that have been subjected to hydrophilic treatment, the yarn count of PPS single yarns in the woven fabric is 295 to 98 dtex (20 to 60 s), the twist factor of the PPS single yarns forming the woven fabric is 180 to 350, and the cover factor of the fabric is between 2400 and 2900, calculated as described in the description, and wherein pore size is measured according to the method of the description.
A composition for use in photodynamic disinfection in human or animal tissue in vivo, the composition comprising a photosensitizer and propylparaben at a concentration range from 0.001% w/v to 1% w/v wherein (i) the photosensitizer is a phenothiazinium salt at a concentration from about 0.001% w/v to about 1% w/v; and (ii) the composition is used for photodynamic disinfection of Gram-negative organism that is receptive to paraben potentiation and is located within a desired treatment area by the composition providing enhanced antimicrobial efficacy against the Gram-negative organism during the photodynamic disinfection as compared to the sum total of the antimicrobial efficacy against the same Gram-negative organism using photodynamic disinfection under similar or identical parameters and paraben alone.
A heat exchanger comprising: a heat exchanger core having a first heat exchange passage for a first working fluid intended to be involved in a heat exchange process, and a second heat exchange passage for a second working fluid intended to be involved in the heat exchange process; and a header comprising a duct for conveying working fluid to or from at least one of the first and second heat exchange passages, wherein the header being welded to the heat exchanger core along a header-to-core joint , wherein the heat exchanger core has a groove extending at least partly along the header-to-core joint , wherein a cross-section of the groove has a rounded shape characterized in that a depth of the groove is larger than half the width of the groove and the rounded shape of the cross-section of the groove defines a finite curvature radius at the header-to-core joint . a heat exchanger core having a first heat exchange passage for a first working fluid intended to be involved in a heat exchange process, and a second heat exchange passage for a second working fluid intended to be involved in the heat exchange process; and a header comprising a duct for conveying working fluid to or from at least one of the first and second heat exchange passages, wherein the header being welded to the heat exchanger core along a header-to-core joint , wherein the heat exchanger core has a groove extending at least partly along the header-to-core joint , wherein a cross-section of the groove has a rounded shape characterized in that a depth of the groove is larger than half the width of the groove and the rounded shape of the cross-section of the groove defines a finite curvature radius at the header-to-core joint .
A high-power high-frequency directional transmission underwater acoustic transducer, comprising: a piezoelectric composite material, electrodes, a matching layer, a heat dissipation structure, and a sound wave absorption backing; wherein the piezoelectric composite material is a 1-1-3 piezoelectric composite consisting of a piezoelectric phase, a passive phase and a structural phase; wherein the piezoelectric phase is a column array of piezoelectric material, the structural phase is a rigid material frame located between the piezoelectric material columns and connected in the x, y and z directions, and the passive phase is a flexible polymer filled between the piezoelectric phase and the structural phase; wherein the piezoelectric composite covers the electrodes on two surfaces in a thickness direction; wherein the matching layer is located on one side of the piezoelectric composite; characterized in that the heat dissipation structure and the sound wave absorption backing are located on the other side of the piezoelectric composite; wherein the sound-absorbing backing is distributed in the heat dissipation structure; the heat dissipation structure is a rigid material frame similar to the rigid structure in the piezoelectric composite material, connected to the lower surface of 1-1-3 piezoelectric composite material, and arranged to match with the rigid material frame inside the 1-1-3 piezoelectric composite material. the heat dissipation structure and the sound wave absorption backing are located on the other side of the piezoelectric composite; wherein the sound-absorbing backing is distributed in the heat dissipation structure; the heat dissipation structure is a rigid material frame similar to the rigid structure in the piezoelectric composite material, connected to the lower surface of 1-1-3 piezoelectric composite material, and arranged to match with the rigid material frame inside the 1-1-3 piezoelectric composite material.