mhurhangee/patent-ind-claim-en huggingface dataset:
A system, comprising: a plurality of storage nodes, comprising a processor and a memory, that store respective versions of a hierarchical data structure consistent with a transaction log for the hierarchical data structure; a transaction log store, that maintains a transaction log for the hierarchical data structure; individual ones of the storage nodes, configured to: receive a read request for specified data stored as part of the hierarchical data structure from a client, wherein the read request specifies one of a plurality of isolation levels or consistency levels; identify one of the respective versions of the hierarchical data structure maintained at the storage node for service of the read request according to the specified isolation level or consistency level in the read request; access one or more locations at the storage node that store the specified data included in the identified version to obtain the specified data; and return the specified data included in the identified version to the client. a plurality of storage nodes, comprising a processor and a memory, that store respective versions of a hierarchical data structure consistent with a transaction log for the hierarchical data structure; a transaction log store, that maintains a transaction log for the hierarchical data structure; individual ones of the storage nodes, configured to: receive a read request for specified data stored as part of the hierarchical data structure from a client, wherein the read request specifies one of a plurality of isolation levels or consistency levels; identify one of the respective versions of the hierarchical data structure maintained at the storage node for service of the read request according to the specified isolation level or consistency level in the read request; access one or more locations at the storage node that store the specified data included in the identified version to obtain the specified data; and return the specified data included in the identified version to the client. receive a read request for specified data stored as part of the hierarchical data structure from a client, wherein the read request specifies one of a plurality of isolation levels or consistency levels; identify one of the respective versions of the hierarchical data structure maintained at the storage node for service of the read request according to the specified isolation level or consistency level in the read request; access one or more locations at the storage node that store the specified data included in the identified version to obtain the specified data; and return the specified data included in the identified version to the client.
Holding device for a hand-held power tool having a tool receptacle which is configured at least for receiving an insert tool , in particular a screwdriver bit, wherein the holding device is intended for holding a fastening element , in particular a screw element, characterized by at least one light element which is configured at least for workingposition illumination, and by a housing which has a first holding unit for fixing the holding device to a hand-held power tool and has a second holding unit for holding a fastening element .
Device for expansion joint cladding for the transition between two sections of a floor covering lying next to one another in the region of an expansion joint between concrete slabs of a floating screed in the inner region of a building, which device consists of a first and a second element which correspond to one another to hide the expansion joint and rest respectively in the edge region of concrete slabs of the screed and cover this edge region respectively over a large area by means of first bearing surfaces to beyond the concrete edges, wherein the first element has on the end a section which has limbs formed like a fork in cross-section, wherein the second element has on the end a section formed like a tongue which slides in the interior of section limited by the limbs to the extent to which the expansion joint narrows or expands, wherein a first profile is formed on the free end of the limb of the first element and a second profile is formed in the vicinity of the tongue-like section of the second element and the two profiles are formed to finish flush with the surface of the floor covering , wherein between the two profiles , an empty space is formed which is filled with a sealing composition , wherein the two profiles are formed as angle sections , the height extensions of which are formed to finish flush with the surface of the floor covering and to form the empty space which is filled with the sealing composition , wherein laterally next to the height extensions , the angle sections form second bearing surfaces , on which the floor covering rests for expansion joint covering between two plastic covering layers and for producing permanently crack-free coverings on floating screeds, the first bearing surfaces have a plurality of two-dimensional breaks into which the installation adhesive can penetrate and thus contribute to additional stabilisation with respect to lateral displacement, laterally next to the second bearing surfaces , lowered edge regions are provided which make it possible that the installation adhesive, with which the elements are attached on the screed , can move upwards to a restricted extent through the said breaks without causing faults in the floor covering .
A memory device, comprising: a plurality of memory cells, wherein each of the memory cells includes: first and second regions formed in a semiconductor substrate , wherein a channel region of the substrate extends between the first and second regions, a floating gate disposed over and insulated from a first portion of the channel region , and a select gate disposed over and insulated from a second portion of the channel region ; a controller configured to: apply one or more positive voltages to the first regions of the memory cells while the memory cells are in a subthreshold state for generating leakage current through each of the channel regions , measure the leakage currents, and generate a random number based on the measured leakage currents; wherein the controller is configured to generate at least part of the random number by subtracting or comparing the measured leakage currents for a first pair of the memory cells from or to the measured leakage currents for a second pair of the memory cells, respectively. a plurality of memory cells, wherein each of the memory cells includes: first and second regions formed in a semiconductor substrate , wherein a channel region of the substrate extends between the first and second regions, a floating gate disposed over and insulated from a first portion of the channel region , and a select gate disposed over and insulated from a second portion of the channel region ; first and second regions formed in a semiconductor substrate , wherein a channel region of the substrate extends between the first and second regions, a floating gate disposed over and insulated from a first portion of the channel region , and a select gate disposed over and insulated from a second portion of the channel region ; a controller configured to: apply one or more positive voltages to the first regions of the memory cells while the memory cells are in a subthreshold state for generating leakage current through each of the channel regions , measure the leakage currents, and generate a random number based on the measured leakage currents; apply one or more positive voltages to the first regions of the memory cells while the memory cells are in a subthreshold state for generating leakage current through each of the channel regions , measure the leakage currents, and generate a random number based on the measured leakage currents; wherein the controller is configured to generate at least part of the random number by subtracting or comparing the measured leakage currents for a first pair of the memory cells from or to the measured leakage currents for a second pair of the memory cells, respectively.
A computer-implemented method for transmitting a multimedia message service, MMS, message using SMS-based notifications, the method comprising: receiving , at a computer system , the MMS message for delivery to a client computing device ; storing, by the computer system , the MMS message ; generating , by the computer system , a traditional short message service, SMS, message comprising a notification that the MMS message is available for download from the computer system ; transmitting , by the computer system , the traditional SMS message to the client computing device , wherein the traditional SMS message is not a WAP push notification and is configured to be intercepted by the client computing device and to cause the client computing device to generate a client-side WAP push notification for the MMS message and to inject the client-side WAP push notification for the MMS message into a platform layer on the client computing device, wherein injecting the WAP push notification causes a messaging application on the client computing device to request download of the MMS message; receiving , after transmitting the traditional SMS message , a request from the client computing device to download the MMS message ; and sending , by the computer system , the MMS message to the client computing device , without first generating or sending a wireless application protocol, WAP, push notification for the MMS message to the client computing device . receiving , at a computer system , the MMS message for delivery to a client computing device ; storing, by the computer system , the MMS message ; generating , by the computer system , a traditional short message service, SMS, message comprising a notification that the MMS message is available for download from the computer system ; transmitting , by the computer system , the traditional SMS message to the client computing device , wherein the traditional SMS message is not a WAP push notification and is configured to be intercepted by the client computing device and to cause the client computing device to generate a client-side WAP push notification for the MMS message and to inject the client-side WAP push notification for the MMS message into a platform layer on the client computing device, wherein injecting the WAP push notification causes a messaging application on the client computing device to request download of the MMS message; receiving , after transmitting the traditional SMS message , a request from the client computing device to download the MMS message ; and sending , by the computer system , the MMS message to the client computing device , without first generating or sending a wireless application protocol, WAP, push notification for the MMS message to the client computing device .
A base station adapted for use in a fifth generation new radio, 5G-NR, network, comprising: means adapted to determine a multicast bandwidth part, BWP, within a carrier bandwidth; means adapted to send an indication of the multicast BWP to one or more user equipment, UE, computing devices in communication with the base station , wherein the multicast BWP is a UE-common BWP configured to be used by at least a portion of the one or more UE computing devices in communication with the base station ; means adapted to schedule transmission of multicast data in the multicast BWP; means adapted to determine whether the UE-common BWP has a same subcarrier spacing, SCS, and cyclic prefix, CP, length as a UE-specific BWP and the UE-common BWP is fully contained within the UE-specific BWP; and means adapted to send an indication of a search space set for multicast to the respective UE computing device in response to determining that the UE-common BWP has a same SCS and CP length as the UE-specific BWP and the UE-common BWP is fully contained within the UE-specific BWP. for use in a fifth generation new radio, 5G-NR, network, comprising: means adapted to determine a multicast bandwidth part, BWP, within a carrier bandwidth; means adapted to send an indication of the multicast BWP to one or more user equipment, UE, computing devices in communication with the base station , wherein the multicast BWP is a UE-common BWP configured to be used by at least a portion of the one or more UE computing devices in communication with the base station ; means adapted to schedule transmission of multicast data in the multicast BWP; means adapted to determine whether the UE-common BWP has a same subcarrier spacing, SCS, and cyclic prefix, CP, length as a UE-specific BWP and the UE-common BWP is fully contained within the UE-specific BWP; and means adapted to send an indication of a search space set for multicast to the respective UE computing device in response to determining that the UE-common BWP has a same means adapted to determine a multicast bandwidth part, BWP, within a carrier bandwidth; means adapted to send an indication of the multicast BWP to one or more user equipment, UE, computing devices in communication with the base station , wherein the multicast BWP is a UE-common BWP configured to be used by at least a portion of the one or more UE computing devices in communication with the base station ; means adapted to schedule transmission of multicast data in the multicast BWP; means adapted to determine whether the UE-common BWP has a same subcarrier spacing, SCS, and cyclic prefix, CP, length as a UE-specific BWP and the UE-common BWP is fully contained within the UE-specific BWP; and means adapted to send an indication of a search space set for multicast to the respective UE computing device in response to determining that the UE-common BWP has a same SCS and CP length as the UE-specific BWP and the UE-common BWP is fully contained within the UE-specific BWP.
A method to protect code processed by an embedded micro-processor against altering comprising following steps: - reading immutable boot code from an internal read only memory (ROM) ; - loading a code image from an external memory and calculating a hash by a core unit ; - initially authenticating the hash using the boot code for decrypting the hash of the external memory ; whereas - concurrently calculating a salted hash for each equivalent of a cache line of the code image by a cache protection block ; - storing the salted hash for each cache line in an internal hash table ; whereas - if the authentication succeeds, a part of the code image is loaded into a secure cache of the embedded micro-processor ; otherwise - if a secure cache miss occurs, the code image is reloaded from the external memory and the salted hash for the missed cache line is re-calculated by the cache protecting block and is checked against the stored salted hash in the internal hash table , whereas a random number is determined by a true random number generator and stored in an internal location of the embedded micro-processor , and the random number is used for re-calculating the hash for the cache line, which has to be reloaded from the external memory due to the cache miss [p. 8, In. 6-21], and calculating the salted hash H for a cache line with a cache line length 1 by taking an entropy-transfer function e(c i ,s) and a hashing function h, wherein c i is a word from a currently processed cache line CL, s is the random number used as salt and e i is a result of the entropy-transfer function e(c i ,s). - reading immutable boot code from an internal read only memory (ROM) ; - loading a code image from an external memory and calculating a hash by a core unit ; - initially authenticating the hash using the boot code for decrypting the hash of the external memory ; whereas - concurrently calculating a salted hash for each equivalent of a cache line of the code image by a cache protection block ; - storing the salted hash for each cache line in an internal hash table ; whereas - if the authentication succeeds, a part of the code image is loaded into a secure cache of the embedded micro-processor ; otherwise - if a secure cache miss occurs, the code image is reloaded from the external memory and the salted hash for the missed cache line is re-calculated by the cache protecting block and is checked against the stored salted hash in the internal hash table , whereas
A non-therapeutic cosmetic use of a combination of (i) at least one polyphenol selected from flavonoid monomers and oligomers, derivatives thereof and mixtures thereof, the polyphenols being extracted from grape seeds, the monomer units of flavonoid derivatives corresponding to the following structure (I): wherein - R1 represents a -OR2 group, a hydrogen atom, or a substituent R3; R2 and R3 identical or different, being as defined below for R4, - at least most of the substituents R represent a -COR4 group, R4 being an alkyl radical of at least two carbon atoms, linear or branched, saturated or unsaturated, an aryl, arylalkyl or arylalkylene radical, - the other substituent(s) R which does/do not represent a -COR4 group being a hydrogen atom, or an alkyl group, and - n1 and n2, identical or different from each other, are numbers from 1 to 3, corresponding to the number of substitutions on a cycle, the monomer units being bonded in the oligomers by carbon-carbon bonds and/or an ether bridge between the units, and (ii) essential oils of peppermint, geranium, lemon balm, lemongrass, rosemary, and lavandin, for treating and/or preventing oily or oily-prone skins and/or aesthetic skin disorders associated thereto. (i) at least one polyphenol selected from flavonoid monomers and oligomers, derivatives thereof and mixtures thereof, the polyphenols being extracted from grape seeds, the monomer units of flavonoid derivatives corresponding to the following structure (I): wherein - R1 represents a -OR2 group, a hydrogen atom, or a substituent R3; R2 and R3 identical or different, being as defined below for R4, - at least most of the substituents R represent a -COR4 group, R4 being an alkyl radical of at least two carbon atoms, linear or branched, saturated or unsaturated, an aryl, arylalkyl or arylalkylene radical, - the other substituent(s) R which does/do not represent a -COR4 group being a hydrogen atom, or an alkyl group, and - n1 and n2, identical or different from each other, are numbers from 1 to 3, corresponding to the number of substitutions on a cycle, the monomer units being bonded in the oligomers by carbon-carbon bonds and/or an ether bridge between the units, and - R1 represents a -OR2 group, a hydrogen atom, or a substituent R3; R2 and R3 identical or different, being as defined below for R4, - at least most of the substituents R represent a -COR4 group, R4 being an alkyl radical of at least two carbon atoms, linear or branched, saturated or unsaturated, an aryl, arylalkyl or arylalkylene radical, - the other substituent(s) R which does/do not represent a -COR4 group being a hydrogen atom, or an alkyl group, and - n1 and n2, identical or different from each other, are numbers from 1 to 3, corresponding to the number of substitutions on a cycle, (ii) essential oils of peppermint, geranium, lemon balm, lemongrass, rosemary, and lavandin,
Method for automatically inserting wire in the form of at least one coil into a coil space of a stator , wherein the insertion of the coil wire is realized in an automated manner with the aid of a rotating winding arm, wherein the coil space comprises a number of coil grooves which are delimited by pole tips and a stator wall of the stator , wherein provision is made of insulation paper in order to protect the at least one coil from abrasion, characterized by the following steps: - inserting the insulation paper into the coil space in such a way that the insulation paper projects beyond the respective pole tip from the respective coil groove in a direction perpendicular to the longitudinal axis (L) of the stator , - inserting the coil wire into the coil space, - fixing individual windings of the coil wire to one another by means of a fixing means, wherein the coil wire has as a fixing means a baking enamel coating by means of which individual wire windings are baked to form a coil , and - fixing to the coil that part of the insulation paper which overhangs perpendicular to the longitudinal axis (L) of the stator , wherein that part of the insulation paper which overhangs perpendicular to the longitudinal axis (L) of the stator is baked on the coil . - inserting the insulation paper into the coil space in such a way that the insulation paper projects beyond the respective pole tip from the respective coil groove in a direction perpendicular to the longitudinal axis (L) of the stator , - inserting the coil wire into the coil space, - fixing individual windings of the coil wire to one another by means of a fixing means, wherein the coil wire has as a fixing means a baking enamel coating by means of which individual wire windings are baked to form a coil , and - fixing to the coil that part of the insulation paper which overhangs perpendicular to the longitudinal axis (L) of the stator , wherein that part of the insulation paper which overhangs perpendicular to the longitudinal axis (L) of the stator is baked on the coil .
A tire comprising a tire frame that comprises a resin material and has a circular shape, and a metal-resin composite , the metal-resin composite having a structure in which a metal member , an adhesive layer and a resin layer are disposed in this order, wherein the resin layer excludes vulcanized rubber, and characterised in that the tire satisfies the following conditions to : the adhesive layer comprises an acid-modified polyolefin as a first resin and a resin that is different from the an acid-modified polyolefin as a second resin, and a content of the first resin is 50% by mass or more of the entire resin in the adhesive layer ; the adhesive layer has a storage elastic modulus at -10°C of 850 MPa or less; the adhesive layer has a storage elastic modulus at 140°C of 1.5 MPa or more, wherein the storage elastic modulus at -10°C and 140°C of the adhesive layer is measured by using a dynamic viscoelasticity tester at a temperature of from -20°C to 145°C, a measurement frequency of 20 Hz and a dynamic strain of 0.1%. the adhesive layer comprises an acid-modified polyolefin as a first resin and a resin that is different from the an acid-modified polyolefin as a second resin, and a content of the first resin is 50% by mass or more of the entire resin in the adhesive layer ; the adhesive layer has a storage elastic modulus at -10°C of 850 MPa or less; the adhesive layer has a storage elastic modulus at 140°C of 1.5 MPa or more, wherein the storage elastic modulus at -10°C and 140°C of the adhesive layer is measured by using a dynamic viscoelasticity tester at a temperature of from -20°C to 145°C, a measurement frequency of 20 Hz and a dynamic strain of 0.1%.