mhurhangee/patent-ind-claim-en huggingface dataset:
A method for communication in an operating system of a terminal device, comprising: obtaining, by an application layer of the terminal device, a hash sequence via applying a hash algorithm to a character string ; obtaining, by the application layer of the terminal device, a secondary hash sequence via applying the hash algorithm to the hash sequence, and setting, by the application layer of the terminal device, the secondary hash sequence to be a feature sequence ; transmitting, by the application layer of the terminal device, the feature sequence to a kernel of the operating system of the terminal device ; determining, by the kernel of the operating system of the terminal device, an operation specified by the character string according to at least a configuration table and the feature sequence , wherein the configuration table contains a correspondence relationship between feature sequences and operations specified by character strings, and the configuration table is transmitted by the application layer to the kernel. obtaining, by an application layer of the terminal device, a hash sequence via applying a hash algorithm to a character string ; obtaining, by the application layer of the terminal device, a secondary hash sequence via applying the hash algorithm to the hash sequence, and setting, by the application layer of the terminal device, the secondary hash sequence to be a feature sequence ; transmitting, by the application layer of the terminal device, the feature sequence to a kernel of the operating system of the terminal device ; determining, by the kernel of the operating system of the terminal device, an operation specified by the character string according to at least a configuration table and the feature sequence , wherein the configuration table contains a correspondence relationship between feature sequences and operations specified by character strings, and the configuration table is transmitted by the application layer to the kernel.
Device for cleaning interdental spaces, having - a housing forming a handle , - a brush holder for holding an interdental space brush , and - a drive device , which is designed to generate a rotational and a translational movement of the brush holder , characterized in that the drive device has a driver sleeve , wherein the brush holder is coupled to the driver sleeve by means of a magnetic coupling , and in that the driver sleeve surrounds a closed housing pot in a pot-like manner and carries two driver magnets , wherein the brush holder sits in the housing pot , and wherein the brush holder carries a coupling magnet for coupling to the driver magnets for the transfer of the rotation and the translation. - a housing forming a handle , - a brush holder for holding an interdental space brush , and - a drive device , which is designed to generate a rotational and a translational movement of the brush holder , the drive device has a driver sleeve , wherein the brush holder is coupled to the driver sleeve by means of a magnetic coupling , and in that the driver sleeve surrounds a closed housing pot in a pot-like manner and carries two driver magnets , wherein the brush holder sits in the housing pot , and wherein the brush holder carries a coupling magnet for coupling to the driver magnets for the transfer of the rotation and the translation.
Apparatus assembly, comprising a single-use probe for a single-use component, which single-use probe is sterilizable by irradiation, wherein the single-use probe is intended for use in a biopharmaceutical process and is located in a packaging, and wherein the single-use probe comprises at least one sensor relevant to the biopharmaceutical process, an RFID tag, and a memory which is rewritable in principle and in which data regarding an integrity check of the single-use probe are stored, characterized in that the single-use probe is equipped with a battery arranged in the RFID tag, which battery serves to supply power to the electronic unit of the single-use probe so that the sensor of the single-use probe can be used as intended and measurement data can be written to the memory when necessary, and in that the apparatus assembly comprises an accumulator unit which is mounted outside of the single-use probe on the packaging of the single-use probe and which is detachably and electrically conductively connected to an electronic unit of the single-use probe or to the RFID tag and supplies power to the single-use probe for as long as the accumulator unit can provide sufficient electrical power, wherein, upon opening the packaging on which the accumulator unit is mounted, the electrical lead between the accumulator unit and the single-use probe is broken and the internal battery of the RFID tag takes over the further power supply, and the time of this event is written to the memory.
A method of preparing a woven ceramic fabric (10; 110) for use in a ceramic matrix composite, characterized in the method comprising: transforming a woven fabric sheet having a first tow architecture into a separated woven fabric sheet having a second tow architecture, the first tow architecture comprising a plurality of warp tows and a plurality of weft tows , and the second tow architecture comprising a plurality of warp subtows and/or a plurality of weft subtows ; wherein transforming the woven fabric sheet comprises separating at least some of the plurality of warp tows and/or the plurality of weft tows into a greater number of corresponding warp subtows and/or weft subtows , respectively, such that second tow architecture comprises more warp subtows and/or weft subtows than the first tow architecture comprises warp tows and/or weft tows , and wherein each of the warp subtows and/or weft subtows comprises fewer filaments than corresponding warp tow or weft tow ; and wherein each of the plurality of warp subtows and/or weft subtows is spaced apart from the closest adjacent warp subtow and/or weft subtow , respectively, a distance of 25 to 230 microns. transforming a woven fabric sheet having a first tow architecture into a separated woven fabric sheet having a second tow architecture, the first tow architecture comprising a plurality of warp tows and a plurality of weft tows , and the second tow architecture comprising a plurality of warp subtows and/or a plurality of weft subtows ; wherein transforming the woven fabric sheet comprises separating at least some of the plurality of warp tows and/or the plurality of weft tows into a greater number of corresponding warp subtows and/or weft subtows , respectively, such that second tow architecture comprises more warp subtows and/or weft subtows than the first tow architecture comprises warp tows and/or weft tows , and wherein each of the warp subtows and/or weft subtows comprises fewer filaments than corresponding warp tow or weft tow ; and wherein each of the plurality of warp subtows and/or weft subtows is spaced apart from the closest adjacent warp subtow and/or weft subtow , respectively, a distance of 25 to 230 microns.
A dental prosthesis manufacturing method, wherein the dental prosthesis is a full prosthesis or a partial prosthesis and the dental prosthesis includes a base and a dental arch, wherein a positive model of the base to be produced is additively produced, the positive model of the base to be produced is subsequently cast around using a hardening casting compound, in particular plaster, wherein, in another step following curing of the casting compound, the positive model of the base to be produced is removed, in particular by the action of heat, so that a negative mold of the base to be produced remains, and wherein the negative mold of the base thus produced is filled with denture base material and the denture base material is cured, wherein each one of a positive model for the dental arch and the base is produced by 3D printing and, in particular subsequently, the base is produced, in particular by injection; wherein the positive model of the dental arch is subsequently applied to the base and is embedded together therewith into a hardening casting compound, and in another step following curing of the casting compound, the positive model of the dental arch is then removed so that a negative mold of the dental arch to be produced is produced and the negative mold of the dental arch thus formed and to be produced is filled with dental arch material by injection.
A method comprising: storing, on persistent storage , statistics that reflect a particular state of a database , wherein: the database comprises an index, the index is implemented using a tree structure, the statistics include the number of leaf nodes in the index, the depth of the index tree, the total size of index, or the number of distinct keys; receiving, at a database server , a Data Manipulation Language, DML, command; in response to the DML command: making one or more changes to data stored in the database ; generating one or more delta statistics that reflect how the one or more changes affect the statistics; and storing the one or more delta statistics in volatile memory of the database server ; generating one or more on-the-fly statistics, including merging the statistics on the persistent storage and the one or more delta statistics; and a query optimizer selecting a particular query plan, from among a plurality of candidate query plans for a subsequent database command, based at least in part on the on-the-fly statistics; wherein the method is performed by one or more computing devices. storing, on persistent storage , statistics that reflect a particular state of a database , wherein: the database comprises an index, the index is implemented using a tree structure, the statistics include the number of leaf nodes in the index, the depth of the index tree, the total size of index, or the number of distinct keys; the database comprises an index, the index is implemented using a tree structure, the statistics include the number of leaf nodes in the index, the depth of the index tree, the total size of index, or the number of distinct keys; receiving, at a database server , a Data Manipulation Language, DML, command; in response to the DML command: making one or more changes to data stored in the database ; generating one or more delta statistics that reflect how the one or more changes affect the statistics; and storing the one or more delta statistics in volatile memory of the database server ; making one or more changes to data stored in the database ; generating one or more delta statistics that reflect how the one or more changes affect the statistics; and storing the one or more delta statistics in volatile memory of the database server ; generating one or more on-the-fly statistics, including merging the statistics on the persistent storage and the one or more delta statistics; and a query optimizer selecting a particular query plan, from among a plurality of candidate query plans for a subsequent database command, based at least in part on the on-the-fly statistics; wherein the method is performed by one or more computing devices.
Floor conveyor , comprising a control unit and a sensor device , wherein the control unit is operable to control the travel functions of the floor conveyor , wherein the sensor device is arranged to be able to provide the control unit with sensor data, wherein the sensor device is arranged such that it can detect objects in a plane , wherein the plane is extending along a first side of the floor conveyor , wherein the plane comprises a stop section , wherein the floor conveyor is arranged such that if an object is detected in the stop section the floor conveyor is stopped by control of the travel function from the control unit upon receipt by it of a sensor data indicating the object being positioned in the stop section , wherein the stop section is also extending along a section of a second side of the floor conveyor, characterized in that the stop section further has an extension that can alter between a first configuration and a second configuration , wherein the first configuration the stop section has a side that has an angled side to the central symmetry line of the floor conveyor such that the stop section discloses a wedge shape with a narrowing width away from the floor conveyor in perpendicular direction to the central symmetry line , wherein the second configuration discloses a shape with a constant width perpendicular to the symmetry line of the floor conveyor .
A vehicle interior system comprising: a base comprising a curved surface ; and a glass substrate comprising a first major surface , a second major surface , a minor surface connecting the first major surface and the second major surface , and a thickness (t) in a range from 0.05 mm to 2 mm, wherein the second major surface comprises a first radius of curvature of 500 mm or greater, wherein, when an impacter having a mass of 6.8 kg impacts the first major surface at an impact velocity of 5.35 mis to 6.69 mis, the deceleration of the impacter is 120 g (g-force) or less; and wherein at least one edge region of the glass substrate is strengthened for improved edge impact performance. a base comprising a curved surface ; and a glass substrate comprising a first major surface , a second major surface , a minor surface connecting the first major surface and the second major surface , and a thickness (t) in a range from 0.05 mm to 2 mm, wherein the second major surface comprises a first radius of curvature of 500 mm or greater, wherein, when an impacter having a mass of 6.8 kg impacts the first major surface at an impact velocity of 5.35 mis to 6.69 mis, the deceleration of the impacter is 120 g (g-force) or less; and wherein at least one edge region of the glass substrate is strengthened for improved edge impact performance.
Lighting system with LED lamps, the lighting system comprising: - a hollow cylindrical support in aluminium; - one or more LED lamps with a casing in resin and/or semitransparent plexiglas; - a band in a metallic alloy conductive of the negative charge positioned on the inner perimeter of said LED lamp ; - a band in a metallic alloy conductive of the positive charge positioned on the inner perimeter of said LED lamp ; - a PCB module equipped with a microprocessor and housed in the cylindrical support ; - magnets : - in ferrite or neodymium; - housed on the outer surface of the cylindrical support in a plexiglas cup ; - arranged in a row and connected to power wires leading to the PCB module ; - separated by an electrically insulated spacer . - a power source of current from 220v to 12v or 24v housed on the outside of the cylindrical support and connected to the residential power mains and to the PCB module ; - a milled groove lengthwise across part of the cylindrical support and housing the plexiglas cup ; - a hollow cylindrical support in aluminium; - one or more LED lamps with a casing in resin and/or semitransparent plexiglas; - a band in a metallic alloy conductive of the negative charge positioned on the inner perimeter of said LED lamp ; - a band in a metallic alloy conductive of the positive charge positioned on the inner perimeter of said LED lamp ; - a PCB module equipped with a microprocessor and housed in the cylindrical support ; - magnets : - in ferrite or neodymium; - housed on the outer surface of the cylindrical support in a plexiglas cup ; - arranged in a row and connected to power wires leading to the PCB module ; - separated by an electrically insulated spacer . - in ferrite or neodymium; - housed on the outer surface of the cylindrical support in a plexiglas cup ; - arranged in a row and connected to power wires leading to the PCB module ; - separated by an electrically insulated spacer . - a power source of current from 220v to 12v or 24v housed on the outside of the cylindrical support and connected to the residential power mains and to the PCB module ; - a milled groove lengthwise across part of the cylindrical support and housing the plexiglas cup ;
A method of fixing a clevis (CB) for an anti-roll bar (BA) to a cross member (TT) of a motor vehicle, characterised in that it comprises a step (i) in which a clevis (CB) is taken which has two fixing holes (TF) and at least one auxiliary hole (TA), and to which an anti-roll bar (BA) is fixedly attached, then this clevis (CB) is placed on a support (SC), attached to a robot and comprising two screwing heads (TV) and at least one bearing (PA) extended by a rod (TP), so that each auxiliary hole (TA) is crossed by a rod (TP) and is placed substantially against said bearing (PA) and its two fixing holes (TF) are placed respectively above said screw heads (TV), and a step (ii) in which said support (SC) is positioned under said cross member (TT) so that said fixing holes (TF) are placed respectively under two corresponding threaded holes (TF') of said cross member (TT), then said screwing heads (TV) provided with screws (VF) are translated in order to introduce the latter (VF) into said fixing holes (TF) and screw them into said threaded holes (TF'), then said screwing heads (TV) are translated and said support (SC) is moved.
A method for supervised training of a deep learning model to obtain histopathological information from images, the method comprising the steps of: - providing a first image of a first section of a specimen, such as a tissue portion, wherein the first section has been stained using a first staining protocol ; - providing a second image of a second section of the specimen, the first and second sections being adjacent sections of the specimen, wherein the second section has been stained using a second staining protocol different from the first staining protocol ; - co-registration of the first and second sections of the images, wherein a transfer map or transfer function expresses an alignment of the first section of the first image and the second section of the second image ; - obtaining histopathological information for the first section of the first image based on the staining of the first section and the first staining protocol; - transferring the histopathological information for the first section of the first image to the second section of the second image based on the co-registration of the first and second sections, thereby labelling the second image according to the histopathological information of the first image and the transfer map or transfer function; and - training a deep learning model, based on the labelling of the second image, to obtain histopathological information from images stained with the second staining protocol wherein the supervised training of the deep learning model comprises the step of comparing training annotations associated with the second image against the transferred histopathological information . - providing a first image of a first section of a specimen, such as a tissue portion, wherein the first section has been stained using a first staining protocol ; - providing a second image of a second section of the specimen, the first and second sections being adjacent sections of the specimen, wherein the second section has been stained using a second staining protocol different from the first staining protocol ; - co-registration of the first and second sections of the images, wherein a transfer map or transfer function expresses an alignment of the first section of the first image and the second section of the second image ; - obtaining histopathological information for the first section of the first image based on the staining of the first section and the first staining protocol; - transferring the histopathological information for the first section of the first image to the second section of the second image based on the co-registration of the first and second sections, thereby labelling the second image according to the histopathological information of the first image and the transfer map or transfer function; and - training a deep learning model, based on the labelling of the second image, to obtain histopathological information from images stained with the second staining protocol wherein the supervised training of the deep learning model comprises the step of comparing training annotations associated with the second image against the transferred histopathological information .
A cache allocation method, comprising: accessing, by a core, a level 3 cache in response to detecting a miss response from each of a level 1 cache and a level 2 cache, wherein the level 1 cache and the level 2 cache are accessed by the core through sending instruction fetching instructions; wherein the instruction fetching instructions are configured to request the level 1 cache and the level 2 cache that are accessed to return an instruction and data, the level 1 cache is a private cache of the core, the level 2 cache is a common cache corresponding to a core set including the core, the level 3 cache is a common cache shared by a plurality of core sets, and the miss response from the level 2 cache carries network slice information (S102); allocating, by a planning unit disposed in the level 3 cache, the plurality of core sets to a plurality of network slices and configuring, by the planning unit, corresponding caches for the plurality of network slices according to the network slice information (S104); and sending, by the planning unit, a hit response to the core, wherein the hit response is configured to return data in a cache of a network slice corresponding to the core set including the core (S106). accessing, by a core, a level 3 cache in response to detecting a miss response from each of a level 1 cache and a level 2 cache, wherein the level 1 cache and the level 2 cache are accessed by the core through sending instruction fetching instructions; wherein the instruction fetching instructions are configured to request the level 1 cache and the level 2 cache that are accessed to return an instruction and data, the level 1 cache is a private cache of the core, the level 2 cache is a common cache corresponding to a core set including the core, the level 3 cache is a common cache shared by a plurality of core sets, and the miss response from the level 2 cache carries network slice information (S102); allocating, by a planning unit disposed in the level 3 cache, the plurality of core sets to a plurality of network slices and configuring, by the planning unit, corresponding caches for the plurality of network slices according to the network slice information (S104); and sending, by the planning unit, a hit response to the core, wherein the hit response is configured to return data in a cache of a network slice corresponding to the core set including the core (S106).