mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a first tube for communicating a fluid through a wellbore; a gap between the first tube and a first electromagnetic acoustic transducer, EMAT; the first EMAT, wherein the first EMAT is positioned to magnetically couple with the first tube, the first EMAT comprising: a magnet; and a wire coil positioned around the magnet; and a second EMAT that is positioned to magnetically couple with the first tube; wherein: the first EMAT is coupled to a power source and positioned to, responsive to receiving a power from the power source, apply a first magnetic force to the first tube for determining a density or a viscosity of the fluid; characterized in that the second EMAT is coupled to the power source and positioned to, responsive to receiving the power from the power source, apply a second magnetic force to the first tube for determining the density or the viscosity of the fluid; and wherein the first EMAT and the second EMAT are positioned symmetrically around a diameter of the first tube, in order to apply symmetric forces to the first tube. a first tube for communicating a fluid through a wellbore; a gap between the first tube and a first electromagnetic acoustic transducer, EMAT; the first EMAT, wherein the first EMAT is positioned to magnetically couple with the first tube, the first EMAT comprising: a magnet; and a wire coil positioned around the magnet; and a magnet; and a wire coil positioned around the magnet; and a second EMAT that is positioned to magnetically couple with the first tube; wherein: the first EMAT is coupled to a power source and positioned to, responsive to receiving a power from the power source, apply a first magnetic force to the first tube for determining a density or a viscosity of the fluid; characterized in that the second EMAT is coupled to the power source and positioned to, responsive to receiving the power from the power source, apply a second magnetic force to the first tube for determining the density or the viscosity of the fluid; and wherein the first EMAT and the second EMAT are positioned symmetrically around a diameter of the first tube, in order to apply symmetric forces to the first tube. the first EMAT is coupled to a power source and positioned to, responsive to receiving a power from the power source, apply a first magnetic force to the first tube for determining a density or a viscosity of the fluid; characterized in that the second EMAT is coupled to the power source and positioned to, responsive to receiving the power from the power source, apply a second magnetic force to the first tube for determining the density or the viscosity of the fluid; and wherein the first EMAT and the second EMAT are positioned symmetrically around a diameter of the first tube, in order to apply symmetric forces to the first tube.
A steering linkage of a vehicle, the vehicle comprising a frame unit, the frame unit being provided, in a front side thereof, with a steering support structure, the steering support structure being provided with a tilting mechanism and a steering linkage pivotally mounted thereto, the steering support structure being provided with a steering column penetrating therethrough; the tilting mechanism comprising an upper crossbar that is pivotally connected to the steering support structure of the frame unit, a lower crossbar that is pivotally connected to the steering support structure and located below the upper crossbar, and a right side bar and a left side bar pivotally connected to two ends of the upper crossbar, the lower crossbar having two ends respectively and pivotally connected to the right side bar and the left side bar; a right support structure connected to the right side bar and comprising right shock absorber, a left support structure connected to the left side bar and comprising a left shock absorber, a central support structure connected to a lower end of the steering column, a steering linkage being connected to the left and right support structures (6, 5) and the central support structure, the steering linkage being pivotally connected to the left and right support structures (6, 5) and the central support structure, characterized in that the steering linkage is located on a rear side of the steering support structure and is located below the lower crossbar.
A method for synchronizing a pre-recorded music accompaniment to a music playing of a user, said user's music playing being captured by at least one microphone delivering an input acoustic signal feeding a processing unit, said processing unit comprising a memory for storing data of the pre-recorded music accompaniment and providing an output acoustic signal based on said pre-recorded music accompaniment data to feed at least one loudspeaker playing the music accompaniment for said user, wherein said processing unit: - analyses the input acoustic signal to detect musical events in the input acoustic signal so as to determine a tempo in said user's music playing, - compares the detected musical events to the pre-recorded music accompaniment data to determine at least a lag diff between a timing of the detected musical events and a timing of musical events of the played music accompaniment, said lag diff being to be compensated, and is characterised in that it - adapts a timing of the output acoustic signal on the basis of: ∗ said lag diff and ∗ a synchronization function F given by: F x = { x 2 w 2 + $tempo − 2 w x + 1 if diff > 0 − x 2 w 2 + $tempo + 2 w x − 1 if diff < 0 where x is a temporal variable, $tempo is the determined tempo in said user's music playing, and w is a duration of compensation of said lag diff. - analyses the input acoustic signal to detect musical events in the input acoustic signal so as to determine a tempo in said user's music playing, - compares the detected musical events to the pre-recorded music accompaniment data to determine at least a lag diff between a timing of the detected musical events and a timing of musical events of the played music accompaniment, said lag diff being to be compensated, and is characterised in that it - adapts a timing of the output acoustic signal on the basis of: ∗ said lag diff and ∗ a synchronization function F given by: F x = { x 2 w 2 + $tempo − 2 w x + 1 if diff > 0 − x 2 w 2 + $tempo + 2 w x − 1 if diff < 0 where x is a temporal variable, $tempo is the determined tempo in said user's music playing, and w is a duration of compensation of said lag diff. ∗ said lag diff and ∗ a synchronization function F given by: F x = { x 2 w 2 + $tempo − 2 w x + 1 if diff > 0 − x 2 w 2 + $tempo + 2 w x − 1 if diff < 0 where x is a temporal variable, $tempo is the determined tempo in said user's music playing, and w is a duration of compensation of said lag diff.
Ingestible composition comprising lactoferrin in a concentration of at least 0.1g/100 kcal of the composition for use in the treatment or prevention of disorders selected from the group consisting of a low digestive and/or absorptive capacity, gastrointestinal reflux, a slow intestinal transit, a weak intestinal barrier function, food intolerance, gut discomfort and hard stools, said disorders linked to a delayed development of the enteric nervous system, and/or an impaired enteric nervous system.
An optical sight comprising: a housing; an optical element supported by the housing; a light source configured to provide a reticle on the optical element, the light source being mounted on an adjustment plate; and a light source adjuster (18, 22) configured to change a position of the reticle relative to the optical element, wherein the light source adjuster (18, 22) includes an adjustment screw (130; 206), an adjuster block (134; 212) configured to threadably receive the adjustment screw (130; 206), the adjuster block (134; 212) being directly engaged with the adjustment plate, and a biasing mechanism (174, 194, 202; 218; 262) configured to apply a force to retain the adjuster block (134; 212) in an adjustment position, wherein rotation of the adjustment screw (130; 206) moves the adjuster block (134; 212), and movement of the adjuster block (134; 212) moves the adjustment plate, and wherein the light source adjuster (18, 22) includes the light source, characterized in that the adjustment plate is a U-shaped plate defining a recess, and the light source is supported by the adjustment plate within the recess. a housing; an optical element supported by the housing; a light source configured to provide a reticle on the optical element, the light source being mounted on an adjustment plate; and a light source adjuster (18, 22) configured to change a position of the reticle relative to the optical element, wherein the light source adjuster (18, 22) includes an adjustment screw (130; 206), an adjuster block (134; 212) configured to threadably receive the adjustment screw (130; 206), the adjuster block (134; 212) being directly engaged with the adjustment plate, and a biasing mechanism (174, 194, 202; 218; 262) configured to apply a force to retain the adjuster block (134; 212) in an adjustment position, an adjustment screw (130; 206), an adjuster block (134; 212) configured to threadably receive the adjustment screw (130; 206), the adjuster block (134; 212) being directly engaged with the adjustment plate, and a biasing mechanism (174, 194, 202; 218; 262) configured to apply a force to retain the adjuster block (134; 212) in an adjustment position, wherein rotation of the adjustment screw (130; 206) moves the adjuster block (134; 212), and movement of the adjuster block (134; 212) moves the adjustment plate, and wherein the light source adjuster (18, 22) includes the light source, characterized in that the adjustment plate is a U-shaped plate defining a recess, and the light source is supported by the adjustment plate within the recess.
A method for analyzing the properties of an incident signal by an analysis device comprising an antenna network comprising N linearly spaced antennas, each antenna being marked by an index n, the index n being an integer between 0 and N-1, the method comprising a step of: - receiving the incident signal from the N antennas, the method being characterized in that the method further comprises a step of: - temporally shifting each received signal by a value of n times the same increment, in order to obtain temporally shifted samples, - calculating a summation of said temporally shifted samples, in order to obtain a summation signal relative to the considered increment, the summation signal being the product of the value of an envelope relative to one value of said increment and of a modulation, and - extracting the value of the envelope relative to the value of the increment, the steps of shifting, computing and extracting being repeated for several different valued of increments, and - estimating a property of the incident signal using the different extracted envelope values. - receiving the incident signal from the N antennas, - temporally shifting each received signal by a value of n times the same increment, in order to obtain temporally shifted samples, - calculating a summation of said temporally shifted samples, in order to obtain a summation signal relative to the considered increment, the summation signal being the product of the value of an envelope relative to one value of said increment and of a modulation, and - extracting the value of the envelope relative to the value of the increment, the steps of shifting, computing and extracting being repeated for several different valued of increments, and - estimating a property of the incident signal using the different extracted envelope values.
A fibrillated aramid fiber having a length weighted length LL 0.25 of 2 to 4 millimeter, a filler retention value of at least 18%, and a green strength value of at least 1.8 mJ/mm 2.
A dishwasher comprising: a washing space in which a rack for receiving dishes and a nozzle (15, 16, 17) for spraying washing water are disposed; a sump in which the washing water supplied into the washing space is collected; a filter part (110, 130) disposed in the sump to filter foreign substances contained in the washing water; a rotation part comprising a blade rotatably contacting the filter part; a driving part providing a driving force to the rotation part; and a rotation shaft separably coupled to the rotation part, wherein the rotation shaft is for transmitting the driving force of the driving part to the rotation part; characterised in that: the rotation shaft comprises a hook selectively hooked to the rotation part; and the dishwasher further comprises: a shaft coupling part disposed on the rotation part, the shaft coupling part being coupled to the rotation shaft; and a hook rib disposed inside the shaft coupling part, the hook rib being hooked to the hook (225,228). a washing space in which a rack for receiving dishes and a nozzle (15, 16, 17) for spraying washing water are disposed; a sump in which the washing water supplied into the washing space is collected; a filter part (110, 130) disposed in the sump to filter foreign substances contained in the washing water; a rotation part comprising a blade rotatably contacting the filter part; a driving part providing a driving force to the rotation part; and a rotation shaft separably coupled to the rotation part, wherein the rotation shaft is for transmitting the driving force of the driving part to the rotation part; the rotation shaft comprises a hook selectively hooked to the rotation part; and a shaft coupling part disposed on the rotation part, the shaft coupling part being coupled to the rotation shaft; and a hook rib disposed inside the shaft coupling part, the hook rib being hooked to the hook (225,228).
A combination comprising -4-amino- N -(1-(4-chlorophenyl)-3 -hydroxypropyl)-1-(7 H -pyrrolo[2,3- d]pyrimidin-4-yl)piperidine-4-carboxamide, or a pharmaceutically acceptable salt thereof, and docetaxel for use in the treatment of breast cancer.
A method of detecting an emergency situation in a room of a hotel, the method comprising: monitoring an access control operably connected to a door of the room; determining that the access control has not been engaged from inside of the room for a selected time period; determining that activity has not been detected in the room for the selected time period; determining that a mobile device is within the room and the mobile device has not moved for the selected time period; and activating an alarm if activity has not been detected in the room and the mobile device has not been moved for the selected time. monitoring an access control operably connected to a door of the room; determining that the access control has not been engaged from inside of the room for a selected time period; determining that activity has not been detected in the room for the selected time period; determining that a mobile device is within the room and the mobile device has not moved for the selected time period; and activating an alarm if activity has not been detected in the room and the mobile device has not been moved for the selected time.
A method for determining a service accessibility of a user equipment, UE, in a case that the UE accesses an IP Multimedia Subsystem, IMS, network via a third-party web, Web, application, comprising: receiving a Web application identifier of the third-party web application sent by an access device; and sending the Web application identifier to an application server, AS, to cause the AS to determine the service accessibility of the UE based on a service accessibility policy corresponding to the Web application identifier and service subscription data of the UE. receiving a Web application identifier of the third-party web application sent by an access device; and sending the Web application identifier to an application server, AS, to cause the AS to determine the service accessibility of the UE based on a service accessibility policy corresponding to the Web application identifier and service subscription data of the UE.
A core-shell particle, comprising: a core, having chemical structure of Ti (1-x) M1 x Nb (2-y) M2 y O (7-z) Q z, wherein M1 is Li or Mg, M2 is Fe, Mn, V, Ni, Cr, or Cu, Q is F, Cl, Br, I, or S, x is 0 to 0.15, y is 0 to 0.15, and z is 0 to 2; and a shell layer wrapping at least a portion of the surface of the core, and the shell layer comprises Cu, Nb, Ti, and O. a core, having chemical structure of Ti (1-x) M1 x Nb (2-y) M2 y O (7-z) Q z, wherein M1 is Li or Mg, M2 is Fe, Mn, V, Ni, Cr, or Cu, Q is F, Cl, Br, I, or S, x is 0 to 0.15, y is 0 to 0.15, and z is 0 to 2; and M2 is Fe, Mn, V, Ni, Cr, or Cu, Q is F, Cl, Br, I, or S, x is 0 to 0.15, y is 0 to 0.15, and z is 0 to 2; and a shell layer wrapping at least a portion of the surface of the core, and the shell layer comprises Cu, Nb, Ti, and O.
Control module for use in a vehicle SCR system, configured to: be connected to at least one device (1; 2) in the SCR system, the device (1; 2) causing air to enter a main pump of a supply module of the SCR system when used for the first time; recognize an ID of the device (1; 2) or an intrinsic component element thereof via a data exchange interface; to be connected to a memory storing a previously stored ID of the device (1;2) or the intrinsic component element thereof; automatically recognize the ID of the device (1; 2) or the intrinsic component element thereof once a vehicle engine has started, and compare the recognized ID with the ID of the device (1; 2) or the intrinsic component element thereof previously stored in the memory, in order to determine whether the device is newly installed; instruct the SCR system to begin operating, if it is determined by the comparison that the device (1; 2) is not newly installed; trigger a first fill function of the SCR system, if it is determined by the comparison that the device (1; 2) is newly installed, and instruct the SCR system to begin operating when the first fill function has been completed; wherein the first fill function is for discharging air from the main pump to a liquid tank by activating the main pump and a withdrawal pump to discharge the air into the liquid tank via a backflow pipeline. be connected to at least one device (1; 2) in the SCR system, the device (1; 2) causing air to enter a main pump of a supply module of the SCR system when used for the first time; recognize an ID of the device (1; 2) or an intrinsic component element thereof via a data exchange interface; to be connected to a memory storing a previously stored ID of the device (1;2) or the intrinsic component element thereof; automatically recognize the ID of the device (1; 2) or the intrinsic component element thereof once a vehicle engine has started, and compare the recognized ID with the ID of the device (1; 2) or the intrinsic component element thereof previously stored in the memory, in order to determine whether the device is newly installed; instruct the SCR system to begin operating, if it is determined by the comparison that the device (1; 2) is not newly installed; trigger a first fill function of the SCR system, if it is determined by the comparison that the device (1; 2) is newly installed, and instruct the SCR system to begin operating when the first fill function has been completed; wherein the first fill function is for discharging air from the main pump to a liquid tank by activating the main pump and a withdrawal pump to discharge the air into the liquid tank via a backflow pipeline.
A soft tissue repair graft comprising: a first layer comprising a biocompatible, non-bioabsorbable polymeric mesh; a second layer comprising an anti-adhesion formation polymeric material; a third layer comprising a microstructured surface, wherein the microstructured surface comprises a first microstructured pattern and a second microstructured pattern, the first microstructured pattern having at least a first microfeature and a second microfeature wherein the first and second microfeatures are configured hierarchically, the second microstructured pattern having a barbed microfeature configured to invasively engage a target surface; and wherein the second layer is disposed about the first layer and third layer is disposed about the second layer. a first layer comprising a biocompatible, non-bioabsorbable polymeric mesh; a second layer comprising an anti-adhesion formation polymeric material; a third layer comprising a microstructured surface, wherein the microstructured surface comprises a first microstructured pattern and a second microstructured pattern, the first microstructured pattern having at least a first microfeature and a second microfeature wherein the first and second microfeatures are configured hierarchically, the second microstructured pattern having a barbed microfeature configured to invasively engage a target surface; and wherein the second layer is disposed about the first layer and third layer is disposed about the second layer.
A method of fabricating a curved display panel, comprising: forming a protective layer at least on a bending region, the bending region being in a non-display region containing peripheral circuits of the display panel, to cover the peripheral circuits; and folding the display panel at the bending region towards a back surface of the display panel, wherein: the protective layer is made of a material including a photosensitive adhesive; characterised in that after forming the protective layer at least on the bending region, the method further includes: half-curing at least a portion of the protective layer corresponding to the bending region in an exposure process using a mask plate; alternatively, half-curing the protective layer in an exposure process; and in that after folding the display panel at the bending region towards a back surface of the display panel, the method further includes: performing a secondary exposure process on the protective layer to completely cure the protective layer. forming a protective layer at least on a bending region, the bending region being in a non-display region containing peripheral circuits of the display panel, to cover the peripheral circuits; and folding the display panel at the bending region towards a back surface of the display panel, wherein: the protective layer is made of a material including a photosensitive adhesive; characterised in that after forming the protective layer at least on the bending region, the method further includes: half-curing at least a portion of the protective layer corresponding to the bending region in an exposure process using a mask plate; alternatively, half-curing the protective layer in an exposure process; and in that after folding the display panel at the bending region towards a back surface of the display panel, the method further includes: performing a secondary exposure process on the protective layer to completely cure the protective layer. the protective layer is made of a material including a photosensitive adhesive; characterised in that after forming the protective layer at least on the bending region, the method further includes: half-curing at least a portion of the protective layer corresponding to the bending region in an exposure process using a mask plate; alternatively, half-curing the protective layer in an exposure process; and in that after folding the display panel at the bending region towards a back surface of the display panel, the method further includes: performing a secondary exposure process on the protective layer to completely cure the protective layer. half-curing at least a portion of the protective layer corresponding to the bending region in an exposure process using a mask plate; alternatively, half-curing the protective layer in an exposure process; and in that after folding the display panel at the bending region towards a back surface of the display panel, the method further includes: performing a secondary exposure process on the protective layer to completely cure the protective layer.