mhurhangee/patent-ind-claim-en huggingface dataset:
Furnace for thermal treatment of a metal product by moving and comprising constitutive elements each having a thermal inertia property, said constitutive elements comprising: - walls at least partially delimiting said furnace ; - a heating unit for heating a metal product when the latter is at least partially in said furnace ; - a rapid heating element for heating a metal product , when the latter is at least partially in said furnace , said rapid heating element being separate from said heating unit ; said furnace further comprising: a control unit for controlling said heating unit and/or the rapid heating element based on one or more thermal inertia properties of one or more constitutive elements of said furnace , coming from a physical or virtual sensor, and at least based on a mass of one constitutive element of said furnace ; said control unit further being configured to control a moving speed of a metal product in said furnace based on one or more thermal inertia properties of one or more constitutive elements of said furnace coming from a physical or virtual sensor. - walls at least partially delimiting said furnace ; - a heating unit for heating a metal product when the latter is at least partially in said furnace ; - a rapid heating element for heating a metal product , when the latter is at least partially in said furnace , said rapid heating element being separate from said heating unit ; a control unit for controlling said heating unit and/or the rapid heating element based on one or more thermal inertia properties of one or more constitutive elements of said furnace , coming from a physical or virtual sensor, and at least based on a mass of one constitutive element of said furnace ; said control unit further being configured to control a moving speed of a metal product in said furnace based on one or more thermal inertia properties of one or more constitutive elements of said furnace coming from a physical or virtual sensor.
A method, comprising: receiving user input signals at a computing device; parsing the user input signals to identify a phrase indicating a task selecting a plurality of applications that are suitable for performing the task; determining a confidence score for individual applications of the plurality of applications based on keywords in the phrase; generating a ranked list of the plurality of applications based on the confidence score for the individual applications; displaying the ranked list recommending the plurality of applications on a display screen in communication with the computing device, wherein an order of the individual applications within the ranked list is based on an associated confidence score; receiving a user selection of a selected application from the ranked list of applications; in response to the user selection of the selected application, updating a task list to include a task item providing a description of the task and an indication of the selected application, wherein a selection of the task item causes the execution of the selected application; receive a user selection of the task item; and in response to the selection of the task item, cause an execution of the selected application for purposes of completing the task. receiving user input signals at a computing device; parsing the user input signals to identify a phrase indicating a task selecting a plurality of applications that are suitable for performing the task; determining a confidence score for individual applications of the plurality of applications based on keywords in the phrase; generating a ranked list of the plurality of applications based on the confidence score for the individual applications; displaying the ranked list recommending the plurality of applications on a display screen in communication with the computing device, wherein an order of the individual applications within the ranked list is based on an associated confidence score; receiving a user selection of a selected application from the ranked list of applications; in response to the user selection of the selected application, updating a task list to include a task item providing a description of the task and an indication of the selected application, wherein a selection of the task item causes the execution of the selected application; receive a user selection of the task item; and in response to the selection of the task item, cause an execution of the selected application for purposes of completing the task.
A paper sheet processing device comprising: a charging inlet that takes in paper sheets (S) in a conveyance direction, the paper sheets (S) including at least one target sheet (S(a)) and a partition card (S(b)) overlapped on the target sheet (S(a)), the partition card (S(b)) having a main surface portion having at least one identification hole group , the identification hole group having at least two through holes arranged along the conveyance direction; a detection unit that detects take-in of the paper sheets (S) by the charging inlet , and detects the identification hole group ; a control unit that determines a paper sheet (S) take-in of which have been detected by the detection unit is the partition card (S(b)) in a case where the identification hole group has been detected by the detection unit , characterized by the control unit determining that a paper sheet (S) take-in of which have been detected by the detection unit is the target sheet (S(a)) in a case where the identification hole group has not been detected by the detection unit . a charging inlet that takes in paper sheets (S) in a conveyance direction, the paper sheets (S) including at least one target sheet (S(a)) and a partition card (S(b)) overlapped on the target sheet (S(a)), the partition card (S(b)) having a main surface portion having at least one identification hole group , the identification hole group having at least two through holes arranged along the conveyance direction; a detection unit that detects take-in of the paper sheets (S) by the charging inlet , and detects the identification hole group ; a control unit that determines a paper sheet (S) take-in of which have been detected by the detection unit is the partition card (S(b)) in a case where the identification hole group has been detected by the detection unit , characterized by the control unit determining that a paper sheet (S) take-in of which have been detected by the detection unit is the target sheet (S(a)) in a case where the identification hole group has not been detected by the detection unit .
A method for aligning nanotubes within an extensible structure, the method comprising: providing a nano-based structure formed by bundles of substantially non-aligned nanotubes, ropes of substantially non-aligned nanotubes and substantially non-aligned nanotubes, wherein the nano-based structure is a non woven sheet or yarn; exposing the nanotubes within the structure to a solution having a solvent and a surfactant to promote separation of the nanotubes within the structure; and stretching the structure, after the exposing step, so as to substantially align the nanotubes within the structure relative to one another and forming a plurality of contact points between adjacent nanotubes within the stretched structure, wherein the stretched structure has a relative decrease in resistivity and a relative increase in tensile strength in comparison to the structure before the exposing and the stretching steps. providing a nano-based structure formed by bundles of substantially non-aligned nanotubes, ropes of substantially non-aligned nanotubes and substantially non-aligned nanotubes, wherein the nano-based structure is a non woven sheet or yarn; exposing the nanotubes within the structure to a solution having a solvent and a surfactant to promote separation of the nanotubes within the structure; and stretching the structure, after the exposing step, so as to substantially align the nanotubes within the structure relative to one another and forming a plurality of contact points between adjacent nanotubes within the stretched structure,
A method of assessing whether an individual is at high risk or low risk of inflammatory bowel disease (IBD) progression, the method comprising establishing, by determining the expression level of four or more genes in a whole blood sample that has been obtained from the individual, whether said individual has a high risk (IBD1) or low risk (IBD2) phenotype, wherein the four or more genes are selected from the group consisting of: arrestin domain containing 4 (ARRDC4); guanylate binding protein 5 (GBP5); purinergic receptor P2Y G-protein coupled, 14 (P2RY14); vault RNA 1-1 (VTRNA1-1); interleukin 18 receptor accessory protein (IL18RAP); haptoglobin (HP); nudix (nucleoside diphosphate linked moiety X)-type motif 7 (NUDT7); granzyme H (GZMH); T cell receptor gamma constant 2 (TRGC2); lectin, galactoside-binding-like (LGALSL); Fc receptor-like 5 (FCRL5); interferon-induced protein 44-like (IFI44L); long intergenic non-protein coding RNA 1136 (LINC01136); lymphocyte antigen 96 (LY96); granzyme K (GZMK); and T Cell Receptor Gamma Variable 3 (TRGV3); wherein an IBD1 phenotype is characterised by upregulated expression of genes ARRDC4, GBP5, P2RY14, VTRNA1-1, IL18RAP, HP, NUDT7, GZMH, TRGC2, and GZMK, relative to the level of expression of these genes in an individual who has an IBD2 phenotype, and downregulated expression of genes LGALSL, FCRL5, IFI44L, LINC01136, LY96, and TRGV3, relative to the level of expression of these genes in an individual who has an IBD2 phenotype, and wherein the four or more genes include IL18RAP, LINC01136, TRGC2 and VTRNA1-1. arrestin domain containing 4 (ARRDC4); guanylate binding protein 5 (GBP5); purinergic receptor P2Y G-protein coupled, 14 (P2RY14); vault RNA 1-1 (VTRNA1-1); interleukin 18 receptor accessory protein (IL18RAP); haptoglobin (HP); nudix (nucleoside diphosphate linked moiety X)-type motif 7 (NUDT7); granzyme H (GZMH); T cell receptor gamma constant 2 (TRGC2); lectin, galactoside-binding-like (LGALSL); Fc receptor-like 5 (FCRL5); interferon-induced protein 44-like (IFI44L); long intergenic non-protein coding RNA 1136 (LINC01136); lymphocyte antigen 96 (LY96); granzyme K (GZMK); and T Cell Receptor Gamma Variable 3 (TRGV3); wherein an IBD1 phenotype is characterised by upregulated expression of genes ARRDC4, GBP5, P2RY14, VTRNA1-1, IL18RAP, HP, NUDT7, GZMH, TRGC2, and GZMK, relative to the level of expression of these genes in an individual who has an IBD2 phenotype, and downregulated expression of genes LGALSL, FCRL5, IFI44L, LINC01136, LY96, and TRGV3, relative to the level of expression of these genes in an individual who has an IBD2 phenotype, and wherein the four or more genes include IL18RAP, LINC01136, TRGC2 and VTRNA1-1.
Method for producing medical pouches in a plant, consisting of two layers of plastic film and at least one component per pouch, having a band of positioning aids for the components, and having a band of carriers for the positioning aids, the positioning aids being carried at the carriers , the carriers being translated in an endless path by means of a guide, the plant having a component application station adapted to bring a component introduced into the station by a positioning aid by means of a carrier into a joint with the plastic film, characterized in that the carriers are alternately guided between a first and a second reversing unit on their endless path , first along a process path and then along a return path , the carriers in the process path being either arranged in series abutting against each other or having interspaces between them; the carriers on the return path being accelerated in the return direction to the point that they leave the inlet into the return path faster than additional carriers are fed into the return path through the inlet after having passed through the process path , so as to increase the interspaces between the carriers , and the carriers being braked down again to form smaller interspaces for intermittently passing through the process path .
A beam director system for a high energy laser, HEL, weapon, the system comprising: an HEL beam source for an HEL beam ; output optics downstream of the HEL beam source; first beam correction elements downstream of the HEL beam source; second beam correction elements downstream of the HEL beam source, and upstream of the output optics; one or more beam correction sensors and one or more tracking sensors ; and a source for a target illuminator beam, range-finding beam, and/or dazzler, for providing an additional beam for tracking the target; and a pickoff that is configured to divert the target illuminator beam, range-finding beam, and/or dazzler from an optical path followed by the HEL beam; wherein the one or more beam correction sensors and the one or more tracking sensors are downstream of the first beam correction elements and are upstream of the second beam correction elements; and wherein the target illuminator beam , range-finding beam, and/or dazzler is configured to pass through the first beam correction elements. an HEL beam source for an HEL beam ; output optics downstream of the HEL beam source; first beam correction elements downstream of the HEL beam source; second beam correction elements downstream of the HEL beam source, and upstream of the output optics; one or more beam correction sensors and one or more tracking sensors ; and a source for a target illuminator beam, range-finding beam, and/or dazzler, for providing an additional beam for tracking the target; and a pickoff that is configured to divert the target illuminator beam, range-finding beam, and/or dazzler from an optical path followed by the HEL beam; wherein the one or more beam correction sensors and the one or more tracking sensors are downstream of the first beam correction elements and are upstream of the second beam correction elements; and wherein the target illuminator beam , range-finding beam, and/or dazzler is configured to pass through the first beam correction elements.
Method for operating a drive device for a motor vehicle, the drive device having a first drive unit in the form of an internal combustion engine and a second drive unit in the form of an electric motor, which at least from time to time jointly provide a drive torque of the drive device on an output shaft , wherein the drive torque is set to a requested preset torque, wherein in a first operating mode, before a speed of the output shaft is changed, for the first drive unit a torque characteristic is selected from a plurality of torque characteristics , wherein, in the first operating mode, during the changing of the speed, the first drive unit is operated exclusively in accordance with the selected torque characteristic for providing at least part of the preset torque and a differential torque of the preset torque to the torque provided by the first drive unit is provided by means of the second drive unit , characterised in that, after the torque characteristic has been selected, a constant throttle valve position corresponding to the torque characteristic is set on the first drive unit and/or a valve train of the first drive unit is set to a constant filling corresponding to the torque characteristic .
Dishwasher with a sieve system, wherein the sieve system comprises a sieve device and an underpan , and wherein the sieve device is arranged above the underpan and spaced apart from the underpan such that a channel with a height h is formed between the underpan and sieve device for discharging a permeate, wherein the underpan is inclined at an angle α such that the permeate can flow on the underpan in the direction of an x axis due to gravity and the inclination of the underpan , characterized in that the sieve device , in particular a sieve surface A Sieve , and a permeate output j v of the sieve device , and the underpan , in particular the inclination α of the underpan and the height h of the channel , are selected and designed such that a maximum heigh H max of the permeate flowing on the underpan , which results due to the volume flow of the permeate occurring on the underpan, can be larger, at least in a partial area of the sieve system , than the height h of the channel in this partial area of the sieve system, such that the permeate is pressed at least partly from below the sieve surface upward through the sieve surface, wherein the dishwasher and the sieve system are designed such that a feed volume flow V̇ Feed during the operation of the dishwasher is at least sometimes at least so high that a maximum height H max of the permeate flowing on the underpan , which results due to the volume flow of the permeate occurring on the underpan , is larger than a height h of the channel in this partial area of the sieve system .
A method for heating a plate workpiece (W) having a main heating target region (A) in which a cross sectional area of a cross section perpendicular to a first direction varies monotonically along the first direction and a sub heating target region (B) provided adjacent to and integrally with a portion of the main heating target region (A), the method comprising: heating the sub heating target region (B); and heating the main heating target region (A) by a direct resistance heating, characterized in that the heating of the main heating target region (A) comprises moving at least one of a pair of electrodes contacting the plate workpiece (W) in the first direction and at a constant speed on the main heating target region (A), the at least one of the pair of electrodes being arranged to extend across the main heating target region (A) in a second direction intersecting the first direction, and adjusting electric current flowing between the pair of electrodes in accordance with a displacement of the at least one of the pair of electrodes that is being moved, and in that the main heating target region (A) is heated after the heating of the sub heating target region (B) to heat the main heating target region (A) and the sub heating target region (B) to be in a target temperature range. heating the sub heating target region (B); and heating the main heating target region (A) by a direct resistance heating, characterized in that the heating of the main heating target region (A) comprises moving at least one of a pair of electrodes contacting the plate workpiece (W) in the first direction and at a constant speed on the main heating target region (A), the at least one of the pair of electrodes being arranged to extend across the main heating target region (A) in a second direction intersecting the first direction, and adjusting electric current flowing between the pair of electrodes in accordance with a displacement of the at least one of the pair of electrodes that is being moved, and in that the main heating target region (A) is heated after the heating of the sub heating target region (B) to heat the main heating target region (A) and the sub heating target region (B) to be in a target temperature range.
An assembly for the orthodontic treatment of a patient's teeth , the assembly being made in one p iece and comprising a pearl and a cap , the pearl being provided with a slot into which an orthodontic wire can be inserted, the cap being shaped individually to the shape of the tooth , wherein the cap is connected to the pearl , wherein in addition the cap is provided with an arm having a free end and wherein the assembly further comprises a connector , the connector being breakable so that the cap is separated from the pearl by breaking the connector .
A multi-cell electroacoustic transducer, comprising: a flexural plate ; a plurality of piezoelectric disks (12a - 12c), said piezoelectric disks arranged in a planar array on and attached to said flexural plate , each of said piezoelectric disks (12a - 12c) and flexural plate defining a bilayer unit; and a rail layer comprising a plurality of rails defining a plurality of apertures, said rail layer attached to said flexural plate; wherein each one of said plurality of piezoelectric disks (12a - 12c) is centered within each one of said plurality of apertures, said rails defining walls of a plurality of bilayer electroacoustic cells, characterized in that said flexural plate and piezoelectric disks (12a - 12c) each have a Young's modulus of the same order of magnitude. a flexural plate ; a plurality of piezoelectric disks (12a - 12c), said piezoelectric disks arranged in a planar array on and attached to said flexural plate , each of said piezoelectric disks (12a - 12c) and flexural plate defining a bilayer unit; and a rail layer comprising a plurality of rails defining a plurality of apertures, said rail layer attached to said flexural plate; wherein each one of said plurality of piezoelectric disks (12a - 12c) is centered within each one of said plurality of apertures, said rails defining walls of a plurality of bilayer electroacoustic cells, characterized in that said flexural plate and piezoelectric disks (12a - 12c) each have a Young's modulus of the same order of magnitude.
Device for absorbing kinetic energy due to an exceptional load, characterized in that it comprises: - an outer envelope configured to retain its integrity after the exceptional load, - a core made of compactable material at least partially filling the outer envelope, the material of the core becoming compacted under an exceptional load and absorbing a part of the kinetic energy due to the impact, - at least one stiffening element integrated into the core, and - a distribution element comprising each stiffening element characterized in that at least one stiffening element is an assembly of unidirectional fibres held by a braided envelope . - an outer envelope configured to retain its integrity after the exceptional load, - a core made of compactable material at least partially filling the outer envelope, the material of the core becoming compacted under an exceptional load and absorbing a part of the kinetic energy due to the impact, - at least one stiffening element integrated into the core, and - a distribution element comprising each stiffening element
A device, the device comprising: at least one port module , the at least one port module comprising one or more connector ports each configured to receive a connector of a network data cable; and a port state sensor that includes a port sensing circuit coupled to a sensor controller , wherein the port sensing circuit is configured to sense a port state for the one or more connector ports ; wherein the sensor controller is configured to input the port state from the port sensing circuit , wherein in response to detecting a change in the port state from the port sensing circuit , the sensor controller wirelessly transmits port state information to a port state monitor ; characterised in that : the sensor controller is configured to switch from a low power mode to an active power mode in response to detecting the change in the port state. at least one port module , the at least one port module comprising one or more connector ports each configured to receive a connector of a network data cable; and a port state sensor that includes a port sensing circuit coupled to a sensor controller , wherein the port sensing circuit is configured to sense a port state for the one or more connector ports ; wherein the sensor controller is configured to input the port state from the port sensing circuit , wherein in response to detecting a change in the port state from the port sensing circuit , the sensor controller wirelessly transmits port state information to a port state monitor ; characterised in that : the sensor controller is configured to switch from a low power mode to an active power mode in response to detecting the change in the port state.
A hair shaping composition suitable for topical application to hair, the composition comprising from 1 to 25 wt% monoglucosamine adipate, dissolved or dispersed in an aqueous carrier.