mhurhangee/ep-ind-claims huggingface dataset:
A method of determining a property for a subject communication device, which subject communication device has a string of characters associated with it, the method comprising: receiving the string of characters associated with the subject communication device; and using the received string of characters to retrieve a property from a store of previously identified properties of sample communication devices, in which store the previously identified properties are referenced by sample strings of characters similarly associated with the sample communication devices, characterised in that the sample strings of characters are arranged in a tree structured in accordance with the characters of the sample strings of characters, with the nodes of the tree comprising substrings of the sample strings of characters and the previously identified properties being referenced by the nodes of the tree. receiving the string of characters associated with the subject communication device; and using the received string of characters to retrieve a property from a store of previously identified properties of sample communication devices, in which store the previously identified properties are referenced by sample strings of characters similarly associated with the sample communication devices, characterised in that the sample strings of characters are arranged in a tree structured in accordance with the characters of the sample strings of characters, with the nodes of the tree comprising substrings of the sample strings of characters and the previously identified properties being referenced by the nodes of the tree.
A catheter device for crossing occlusions, the device comprising: an elongate body; and a central lumen extending within the elongate body from a proximal end of the elongate body to a distal end of the elongate body, wherein the device further comprises: a rotatable tip at the distal end of the elongate body and configured to rotate relative to the elongate body, an OCT imaging sensor comprising an optical fiber coupled with the rotatable tip and configured to rotate therewith, wherein the optical fiber is configured to wrap around the central lumen within the elongate body as the rotatable tip rotates; and a drive mechanism configured to continuously rotate the rotatable tip alternately clockwise and counterclockwise. an elongate body; and a central lumen extending within the elongate body from a proximal end of the elongate body to a distal end of the elongate body, a rotatable tip at the distal end of the elongate body and configured to rotate relative to the elongate body, an OCT imaging sensor comprising an optical fiber coupled with the rotatable tip and configured to rotate therewith, wherein the optical fiber is configured to wrap around the central lumen within the elongate body as the rotatable tip rotates; and a drive mechanism configured to continuously rotate the rotatable tip alternately clockwise and counterclockwise.
A thermal and catalytic conversion process for converting a hydrocarbon feed having a Conradson Carbon Residue ("CCR") content of from 0 to 6 wt.%, based on the hydrocarbon feed, which comprises: a) processing the hydrocarbon feed in a thermal conversion zone under effective thermal conversion conditions to produce a thermally cracked product; b) conducting at least a portion of the thermally cracked product to a fractionator containing a divided wall; c) using the divided wall portion of the fractionator to separate a thermally cracked bottoms; d) conducting at least a portion of the thermally cracked bottoms to a fluid catalytic cracking reactor; e) catalytically converting the thermally cracked bottoms under effective fluid catalytic cracking conditions to produce a catalytically cracked product; f) conducting the catalytically cracked product to the fractionator at a point below the uppermost portion of the divided wall wherein a portion of the catalytically cracked product is co-mingled with a thermally cracked distillate and a thermally cracked naphtha; and g) separating a co-mingled naphtha, a co-mingled distillate, and a catalytically cracked bottoms from the fractionator; wherein the catalytically cracked bottoms is segregated from the thermally cracked bottoms utilizing the divided wall portion of the fractionator. a) processing the hydrocarbon feed in a thermal conversion zone under effective thermal conversion conditions to produce a thermally cracked product; b) conducting at least a portion of the thermally cracked product to a fractionator containing a divided wall; c) using the divided wall portion of the fractionator to separate a thermally cracked bottoms; d) conducting at least a portion of the thermally cracked bottoms to a fluid catalytic cracking reactor; e) catalytically converting the thermally cracked bottoms under effective fluid catalytic cracking conditions to produce a catalytically cracked product; f) conducting the catalytically cracked product to the fractionator at a point below the uppermost portion of the divided wall wherein a portion of the catalytically cracked product is co-mingled with a thermally cracked distillate and a thermally cracked naphtha; and g) separating a co-mingled naphtha, a co-mingled distillate, and a catalytically cracked bottoms from the fractionator;
A terminal apparatus comprising: a transmission unit configured to transmit, in one uplink Bandwidth Part, BWP, of one serving cell, a first Physical Uplink Shared Channel, PUSCH, corresponding to a configured uplink grant, the configured uplink grant being a Radio Resource Control, RRC, configured uplink grant; and a reception unit configured to receive, in one downlink BWP of the one serving cell, downlink control information on a Physical Downlink Control Channel, PDCCH, that schedule a second PUSCH, wherein in the one uplink BWP, in a case that a duration of the first PUSCH overlaps a duration of the second PUSCH, an initial uplink symbol of the first PUSCH is expected to not be earlier than an initial uplink symbol at which a Cyclic Prefix, CP, begins after a predetermined period of time after a last symbol of the PDCCH, the predetermined period of time is provided at least based on a parameter μ′′′, the parameter μ′′′ corresponds to a smaller one of μ DL and μ PUSCH, the μ DL corresponds to a first subcarrier spacing configuration of downlink in which the PDCCH is transmitted, and the μ PUSCH corresponds to a second subcarrier spacing configuration of uplink in which the first PUSCH and the second PUSCH are transmitted. a transmission unit configured to transmit, in one uplink Bandwidth Part, BWP, of one serving cell, a first Physical Uplink Shared Channel, PUSCH, corresponding to a configured uplink grant, the configured uplink grant being a Radio Resource Control, RRC, configured uplink grant; and a reception unit configured to receive, in one downlink BWP of the one serving cell, downlink control information on a Physical Downlink Control Channel, PDCCH, that schedule a second PUSCH, wherein in the one uplink BWP, in a case that a duration of the first PUSCH overlaps a duration of the second PUSCH, an initial uplink symbol of the first PUSCH is expected to not be earlier than an initial uplink symbol at which a Cyclic Prefix, CP, begins after a predetermined period of time after a last symbol of the PDCCH, the predetermined period of time is provided at least based on a parameter μ′′′, the parameter μ′′′ corresponds to a smaller one of μ DL and μ PUSCH, the μ DL corresponds to a first subcarrier spacing configuration of downlink in which the PDCCH is transmitted, and the μ PUSCH corresponds to a second subcarrier spacing configuration of uplink in which the first PUSCH and the second PUSCH are transmitted.
A method for continuously converting an aqueous salt containing sludge into gases and a solid residue, wherein the method comprises; - the aqueous salt containing sludge is dewatered to a water content of 20-60% by weight; and thereafter: - the dewatered sludge is heated to a temperature of 500 °C to 1000 °C by microwave radiation, wherein the microwave radiation generates heat and steam, thereby - partially or complete pyrolyzing the dewatered sludge to produce pyrolysis products, wherein the pyrolysis products inter alia are CO (g), CH 4 (g) and H 2 (g), CHO (oil) and solid C(s), and - gasifying the pyrolysis products, wherein inter alia the solid C (s) and CHO (oil) are gasified to CO(g) and H 2 (g), wherein the microwave enhanced pyrolysis and gasification takes place simultaneously in one reactor. - the aqueous salt containing sludge is dewatered to a water content of 20-60% by weight; and thereafter: - the dewatered sludge is heated to a temperature of 500 °C to 1000 °C by microwave radiation, wherein the microwave radiation generates heat and steam, thereby - partially or complete pyrolyzing the dewatered sludge to produce pyrolysis products, wherein the pyrolysis products inter alia are CO (g), CH 4 (g) and H 2 (g), CHO (oil) and solid C(s), and - gasifying the pyrolysis products, wherein inter alia the solid C (s) and CHO (oil) are gasified to CO(g) and H 2 (g), wherein the microwave enhanced pyrolysis and gasification takes place simultaneously in one reactor.
System for managing the picking up and transport of at least one user by a vehicle of a fleet of vehicles, the user and the vehicles of the fleet being equipped with communicating objects (3, 5) comprising locating means (6, 10), the communicating object of the user comprising means for transmitting a request for transport to a central management server, the central server comprising means (15, 16) for identifying an available vehicle of the fleet close to the user and means for transmitting thereto information for locating and/or directing the vehicle to the user, characterised in that the means for transmitting to the user are configured to transmit a journey code, in that said system additionally comprises means for transmitting to the communicating object of the user information that his request for transport has been taken into account and the journey code, which makes it possible to verify that the correct user is using the correct vehicle, in that the central server is associated with a database of users subscribed to a transport service, which database contains information identifying the user, information relating to predetermined journeys and preestablished payment information for those predetermined journeys, and in that the communicating object of the user comprises means for the selection by the user of either a predetermined journey or another journey.
An oral sustained-release triple-layer tablet comprising: a rapid-release intermediate layer containing tamsulosin or a pharmaceutically acceptable salt thereof and at least one water soluble excipient selected from the group consisting of mannitol and polyethylene glycol; and upper and lower layers, each of which contains polyethylene oxide, wherein the polyethylene oxide is a swellable polymer, wherein the upper and lower layers swell and surround exposed sides of the rapid-release intermediate layer upon contact with a water soluble medium to control the release of the active substance. a rapid-release intermediate layer containing tamsulosin or a pharmaceutically acceptable salt thereof and at least one water soluble excipient selected from the group consisting of mannitol and polyethylene glycol; and upper and lower layers, each of which contains polyethylene oxide, wherein the polyethylene oxide is a swellable polymer,
An apparatus configured for renal neuromodulation, e.g. renal denervation, the apparatus comprising: an intravascular catheter comprising a self-expandable helical section (211 b) and one or more electrodes at the helical section, which are adapted to be coupled to an electric field generator, wherein the helical section (211 b) forms a helix having a pitch, wherein the pitch of the helix can be varied, wherein the apparatus is further configured for the insertion of adjusting mandrels into the catheter for adjusting the pitch, and wherein the helical section is configured to selt-expand from a low profile configuration into contact with an interior wall of a renal artery when the catheter is positioned within the renal arter. an intravascular catheter comprising a self-expandable helical section (211 b) and one or more electrodes at the helical section, which are adapted to be coupled to an electric field generator, wherein the helical section (211 b) forms a helix having a pitch, wherein the pitch of the helix can be varied, wherein the apparatus is further configured for the insertion of adjusting mandrels into the catheter for adjusting the pitch, and wherein the helical section is configured to selt-expand from a low profile configuration into contact with an interior wall of a renal artery when the catheter is positioned within the renal arter.
A decoding method for Versatile Video Coding, VVC, performed by a decoding apparatus, the method comprising: parsing a general merge flag representing whether inter prediction parameters for a current block are inferred from a neighboring inter-predicted partition from a bitstream; parsing merge data syntax including information on a prediction mode for the current block from the bitstream when a value of the general merge flag is equal to 1; deriving motion information of the current block based on the prediction mode of the current block; generating prediction samples of the current block based on the motion information; and generating reconstructed samples based on the prediction samples, wherein the bitstream includes a combined inter-picture merge and intra-picture prediction, CIIP, enabled flag representing whether the CIIP is enabled and a skip flag representing whether a skip mode is applied to the current block, wherein a regular merge flag is included in the merge data syntax when all of the following conditions are true: the value of the general merge flag being equal to 1, a value of the CIIP enabled flag being equal to 1, a value of the skip flag being equal to 0, a product of a height of the current block and a width of the current block being greater than or equal to 64, the height of the current block being smaller than 128, and the width of the current block being smaller than 128, and wherein the regular merge flag represents whether a regular merge mode is applied for the current block. parsing a general merge flag representing whether inter prediction parameters for a current block are inferred from a neighboring inter-predicted partition from a bitstream; parsing merge data syntax including information on a prediction mode for the current block from the bitstream when a value of the general merge flag is equal to 1; deriving motion information of the current block based on the prediction mode of the current block; generating prediction samples of the current block based on the motion information; and generating reconstructed samples based on the prediction samples, wherein the bitstream includes a combined inter-picture merge and intra-picture prediction, CIIP, enabled flag representing whether the CIIP is enabled and a skip flag representing whether a skip mode is applied to the current block, wherein a regular merge flag is included in the merge data syntax when all of the following conditions are true: the value of the general merge flag being equal to 1, a value of the CIIP enabled flag being equal to 1, a value of the skip flag being equal to 0, a product of a height of the current block and a width of the current block being greater than or equal to 64, the height of the current block being smaller than 128, and the width of the current block being smaller than 128, and wherein the regular merge flag represents whether a regular merge mode is applied for the current block.
A tissue clip application fitting set or retrofitting set with a cap attachment which is adapted to be put over the distal head of a medical endoscope of the shaft type, and which, for this purpose, has a proximal placement section and a distal tissue clip holding section in the region of which a hollow chamber open in the distal direction is formed internally, said hollow chamber being bordered at the distal end of the cap attachment by a circumferential front edge formed in the distal transition from the hollow chamber to a peripheral surface of the cap attachment which is oriented in an outward direction and on which a tissue clip is supported radially in the region of the tissue clip holding section, wherein the circumferential front edge comprises at least two notches, grooves, recesses or offsets (36, 36') extending in the axial direction and formed or arranged on the front edge at a particular angular distance to each other, characterized by a working channel which is part of the cap attachment and opens into the hollow chamber and exits the hollow chamber radially in a region distal to the placement section and proximal to the radially supported tissue clip to be able to be guided longitudinally separately to the endoscope, a first guiding or leading element which is arranged in the hollow chamber, extends in the axial direction and, viewed in the distal direction, inclines radially into the hollow chamber, and which is subordinate to the working channel being part of the cap attachment in a distal direction, such that a first medical instrument introduced into the working channel being part of the cap attachement is deflected radially in the direction of the hollow chamber at the first guiding or leading element, and a second guiding or leading element which is arranged within the hollow chamber at an angular distance to the first guiding or leading element and extends in an axial direction as well as, viewed in the distal direction, inclines radially into the hollow chamber, and which is provided to be oriented in extension to a working channel being part of the endoscope, such that a second medical instrument introduced into the working channel being part of the endoscope in addition to the first medical instrument is deflected radially in the direction of the hollow chamber at the second guiding or leading element.
A method of expanding locality in a security co-processor module (100, 216) of a computing system comprising: setting a security mode of the security co-processor module (100, 216) to an enhanced mode when the computing system provides a capability to obtain a current geographic location or a trusted time; receiving a request by the security co-processor module (100, 216) to execute an operation; determining the security mode for the security co-processor module (100, 216); when the security mode is set to a normal mode, checking a machine mode of the computing system and executing the requested operation when the machine mode is acceptable; and when the security mode is set to an enhanced mode, getting a security policy, getting a current geographic location of the computing system and a current trusted time, determining if the requested operation is acceptable according to geographic location and trusted time attribute entries specified in the security policy, the current geographic location, and the current trusted time, and checking the machine mode of the computing system when the requested operation and the machine mode are both acceptable, executing the requested operation. setting a security mode of the security co-processor module (100, 216) to an enhanced mode when the computing system provides a capability to obtain a current geographic location or a trusted time; receiving a request by the security co-processor module (100, 216) to execute an operation; determining the security mode for the security co-processor module (100, 216); when the security mode is set to a normal mode, checking a machine mode of the computing system and executing the requested operation when the machine mode is acceptable; and when the security mode is set to an enhanced mode, getting a security policy, getting a current geographic location of the computing system and a current trusted time, determining if the requested operation is acceptable according to geographic location and trusted time attribute entries specified in the security policy, the current geographic location, and the current trusted time, and checking the machine mode of the computing system when the requested operation and the machine mode are both acceptable, executing the requested operation.
Method for preparing methyl 4,6-diamino-2-[1-(2-fluorobenzyl)-1H-pyrazolo[3,4-b]pyridin-3-yl]-5-pyrimidinylcarbamate of the formula, characterized in that 2-[1-(2-fluorobenzyl)-1H-pyrazolo[3,4-b]pyridin-3-yl]-4,5,6-pyrimidinetriamine of the formula (VIII) is reacted with dimethyl dicarbonate of the formula in the context of a pyridine-free reaction regime.
A method of producing a microdispersion containing at least one hydroxamated polymer, said method comprising: reacting a) a water-in-oil microdispersion comprising a continuous phase of an oil and an emulsifier, and a discontinuous aqueous phase comprising a vinyl polymer containing one or more pendant functional groups that react with hydroxylamine, with b) a hydroxylamine free base_containing a mass fraction of less than 0.5 % of salt and containing less than 500 ppm hydrazine based on hydroxylamine.
Apparatus for the production of containers in plastic material, such as jars, bottles or the like, suitable for being connected to a traditional machine for injection moulding and comprising a fixed plate or back plate which can be connected to an injection system for the moulding of the plastic and a movable plate carrying one or more punches, each punch defining a moulding chamber when in contact with a corresponding die present on the back plate, for the production of a parison wherein: - said movable plate comprises at least two stations or modules (31, 32) provided with said punches and with blowing systems positioned internally to said stations (31, 32) and connected to the punches; - said back plate comprises at least one central station provided with said dies and injection systems for the moulding of the parisons and at least two lateral stations (12, 13) containing dies for the blowing (17, 18) with respective seats for receiving the parisons; in such a way that, when the two plates (10, 30) are in contact, in one of the stations (31, 32) the moulding of the parisons takes place and simultaneously in the other station the blowing of the parisons for the formation of finished containers (101, 101') takes place, with the parison always in contact with the punches whereon they have been formed, the apparatus being characterized in that: - said movable plate is carried by a frame moving axially in the direction of the back plate and is mounted thereon in such a way that it can slide in transverse direction along guides present on said frame. - said movable plate comprises at least two stations or modules (31, 32) provided with said punches and with blowing systems positioned internally to said stations (31, 32) and connected to the punches; - said back plate comprises at least one central station provided with said dies and injection systems for the moulding of the parisons and at least two lateral stations (12, 13) containing dies for the blowing (17, 18) with respective seats for receiving the parisons; - said movable plate is carried by a frame moving axially in the direction of the back plate and is mounted thereon in such a way that it can slide in transverse direction along guides present on said frame.
Method to dissipate heat from an electronic or optoelectronic component (1, 30) positioned within the scope of a cooling air flow, wherein the electronic or optoelectronic component comprises a heat sink (20, 33) with a heat sink base (21, 34) having a top surface carrying a plurality of upwardly extending heat dissipation elements (22, 35), characterized in that the top surface makes an angle (α) with the flow direction of the cooling air flow.