mhurhangee/ep-ind-claims huggingface dataset:
A method performed at a scheduling entity, for wireless communication over an air interface, the method comprising: segmenting a resource group into a plurality of regions, including a first region comprising time-frequency resources for asynchronous channel access and a second region comprising time-frequency resources for synchronous channel access, the resource group comprising a set of time-frequency resources available for wireless communication over the air interface; determining a time-frequency resource allocation within the air interface for communication with one or more subordinate entities utilizing each of a plurality of physical communication entities at the scheduling entity; controlling each of the plurality of physical communication entities to multiplex signals corresponding to each of the plurality of physical communication entities, respectively, including a first physical communication entity configured for wireless communication in the first region for synchronous channel access and a second physical communication entity configured for wireless communication in the second region for asynchronous channel access, wherein the first physical communication entity is different from the second physical communication entity; and transmitting a signaling message to the one or more subordinate entities, the signaling message configured to indicate the time-frequency resource allocation within the air interface, wherein a subordinate entity is a node or device that receives scheduling control information. segmenting a resource group into a plurality of regions, including a first region comprising time-frequency resources for asynchronous channel access and a second region comprising time-frequency resources for synchronous channel access, the resource group comprising a set of time-frequency resources available for wireless communication over the air interface; determining a time-frequency resource allocation within the air interface for communication with one or more subordinate entities utilizing each of a plurality of physical communication entities at the scheduling entity; controlling each of the plurality of physical communication entities to multiplex signals corresponding to each of the plurality of physical communication entities, respectively, including a first physical communication entity configured for wireless communication in the first region for synchronous channel access and a second physical communication entity configured for wireless communication in the second region for asynchronous channel access, wherein the first physical communication entity is different from the second physical communication entity; and transmitting a signaling message to the one or more subordinate entities, the signaling message configured to indicate the time-frequency resource allocation within the air interface, wherein a subordinate entity is a node or device that receives scheduling control information.
An instrumented shell for sensing drilling parameters of a drilling assembly positionable at a wellsite, the drilling assembly comprising a top drive assembly and a downhole tool advancable into a subterranean formation, the instrumented shell comprising: a shell body positionable about the top drive assembly, the shell body having at least one pocket and at least one cover positioned about the shell body to enclose the at least one pocket; at least one instrument comprising at least one sensor, the at least one instrument removably disposed in the at least one pocket and sealed within the at least one pocket with the at least one cover; and an interconnector comprising a top drive connector removably connectable to the top drive assembly, a shell connector removably connected to the shell body, and a cable between the top drive connector and the shell connector and configured to pass signals between the top drive connector and the shell body; characterized in that the at least one pocket extends radially inward from a radially outer surface of the shell body. a shell body positionable about the top drive assembly, the shell body having at least one pocket and at least one cover positioned about the shell body to enclose the at least one pocket; at least one instrument comprising at least one sensor, the at least one instrument removably disposed in the at least one pocket and sealed within the at least one pocket with the at least one cover; and an interconnector comprising a top drive connector removably connectable to the top drive assembly, a shell connector removably connected to the shell body, and a cable between the top drive connector and the shell connector and configured to pass signals between the top drive connector and the shell body; characterized in that the at least one pocket extends radially inward from a radially outer surface of the shell body.
An ultrasound imaging system comprising: a transducer configured to acquire ultrasound images of an object based on one or more adjustable acquisition parameters, a storage configured to store the ultrasound images, an analyzer configured to analyze the ultrasound images in real-time for a mean intensity value, and a processor configured to determine in real-time when the mean intensity value has reached a peak, wherein the adjustable acquisition parameters comprise a storage frame rate (46, 48) at which the transducer stores ultrasound images in the storage, characterized in that the processor is configured to reduce the storage frame rate to a non-zero value after the peak has been determined. a transducer configured to acquire ultrasound images of an object based on one or more adjustable acquisition parameters, a storage configured to store the ultrasound images, an analyzer configured to analyze the ultrasound images in real-time for a mean intensity value, and a processor configured to determine in real-time when the mean intensity value has reached a peak, wherein the adjustable acquisition parameters comprise a storage frame rate (46, 48) at which the transducer stores ultrasound images in the storage, characterized in that the processor is configured to reduce the storage frame rate to a non-zero value after the peak has been determined.
An all-pass filter design method for improving audio reproduction within a bass frequency range in a listening room comprising at least one loudspeaker (LS i) and at least one listening position, the method comprises: providing, for each loudspeaker (LS i), a group delay response (τ Gi (ω)) to be equalized and associated with one pre-defined position in the listening room; calculating filter coefficients for all-pass filter(s) (H APi (ω)) each arranged upstream to one corresponding loudspeaker (LS i), the all-pass filter(s) (H APi (ω)) having a transfer characteristic such that the corresponding group delay response (s) (τ Gi (ω)) match(es) a predefined target group delay response (τ GTarget (ω)), characterized in that the step of calculating filter coefficients comprises for each all-pass filter (H APi (ω)) associated with one respective loudspeaker (LS i): providing a frequency dependent group delay constraint defining a finite range which confines the group delay response (τ Gi (ω)) of the all-pass filter (H APi (ω)); iteratively calculating updated filter coefficients such that an error norm assumes a minimum while complying with the group delay constraint, the error norm representing the deviation of the group delay response (τ Gi (ω)) of the respective all-pass filter H APi (ω)) from the corresponding target group delay response (τ GTarget (ω)). providing, for each loudspeaker (LS i), a group delay response (τ Gi (ω)) to be equalized and associated with one pre-defined position in the listening room; calculating filter coefficients for all-pass filter(s) (H APi (ω)) each arranged upstream to one corresponding loudspeaker (LS i), the all-pass filter(s) (H APi (ω)) having a transfer characteristic such that the corresponding group delay response (s) (τ Gi (ω)) match(es) a predefined target group delay response (τ GTarget (ω)), characterized in that the step of calculating filter coefficients comprises for each all-pass filter (H APi (ω)) associated with one respective loudspeaker (LS i): providing a frequency dependent group delay constraint defining a finite range which confines the group delay response (τ Gi (ω)) of the all-pass filter (H APi (ω)); iteratively calculating updated filter coefficients such that an error norm assumes a minimum while complying with the group delay constraint, the error norm representing the deviation of the group delay response (τ Gi (ω)) of the respective all-pass filter H APi (ω)) from the corresponding target group delay response (τ GTarget (ω)).
A metallic and composite joint comprising: a composite member having one of a flared end or an angled end, the angled end angled inward towards a centerline axis of the composite member; a first liner perimetrically surrounding the composite member; a metallic member at least partially perimetrically surrounding the liner, wherein a first side of the first liner contacts the composite member and a second side of the first liner contacts the metallic member; an insert positioned at least partially within the one of the flared end or the angled end, wherein the one of the flared end or the angled end is compressed between the metallic member and the insert characterised in that: a second liner perimetrically surrounding the insert; and wherein a first side of the second liner contacts the composite member and a second side of the second liner contacts the insert. a composite member having one of a flared end or an angled end, the angled end angled inward towards a centerline axis of the composite member; a first liner perimetrically surrounding the composite member; a metallic member at least partially perimetrically surrounding the liner, wherein a first side of the first liner contacts the composite member and a second side of the first liner contacts the metallic member; an insert positioned at least partially within the one of the flared end or the angled end, wherein the one of the flared end or the angled end is compressed between the metallic member and the insert characterised in that: a second liner perimetrically surrounding the insert; and wherein a first side of the second liner contacts the composite member and a second side of the second liner contacts the insert. a second liner perimetrically surrounding the insert; and wherein a first side of the second liner contacts the composite member and a second side of the second liner contacts the insert.
Process for producing an antibacterial glass surface, comprising the steps: a) provision of a glass sheet having at least one surface; b) application of a screen printing paste to the at least one surface, where the screen printing paste comprises a screen printing oil and at least one nitride, sulfide or oxide of a first metal cation, in particular of aluminium, copper, titanium, zinc, tin or zirconium; c) drying of the screen printing paste on the at least one surface, in particular at 60°C; d) heat treatment of the glass sheet at a temperature above 500°C, in particular above 600°C; e) removal of the screen printing paste; characterized in that the screen printing paste comprises at least one thermally stable oxide of a second metal cation. a) provision of a glass sheet having at least one surface; b) application of a screen printing paste to the at least one surface, where the screen printing paste comprises a screen printing oil and at least one nitride, sulfide or oxide of a first metal cation, in particular of aluminium, copper, titanium, zinc, tin or zirconium; c) drying of the screen printing paste on the at least one surface, in particular at 60°C; d) heat treatment of the glass sheet at a temperature above 500°C, in particular above 600°C; e) removal of the screen printing paste;
A redox-curing type composition comprising a polymerizable monomer (a) having an acidic group, a polymerizable monomer (b) having no acidic group, a powdery inorganic peroxide (c) with an average particle diameter of 0.01 to 50 μm, an amine-based reducing agent (d), and a polymerization accelerator (e), wherein the amine-based reducing agent (d) comprises an aromatic amine (d-1) and an aliphatic amine (d-2), and a weight ratio (d-1):(d-2) therebetween is 5:1 to 1:50.
A multifunctional adaptor for connecting at least one vehicle component to a support member of a vehicle comprising: a body including a base and a shaft extending from the base, the base terminating at a first axial end surface and the shaft terminating at a second axial end surface; a first passage extending from the first axial end surface towards the second axial end surface for receiving a first fastener to secure the adaptor to the support member; a second passage extending from the second axial end surface towards the first axial end surface for receiving a second fastener to secure a first vehicle component to the adaptor; characterised by a third passage extending transverse to the first passage and the second passage entirely through the body for receiving a third fastener to secure a second vehicle component to the adaptor. a body including a base and a shaft extending from the base, the base terminating at a first axial end surface and the shaft terminating at a second axial end surface; a first passage extending from the first axial end surface towards the second axial end surface for receiving a first fastener to secure the adaptor to the support member; a second passage extending from the second axial end surface towards the first axial end surface for receiving a second fastener to secure a first vehicle component to the adaptor; characterised by a third passage extending transverse to the first passage and the second passage entirely through the body for receiving a third fastener to secure a second vehicle component to the adaptor.
A crystalline polymorph of the compound of formula I which has a powder X-ray diffraction pattern comprising one 2θ angle value at 9.4 ± 0.2, one 2θ angle value at 10.3 ± 0.2 and at least three 2θ angle values selected from the group consisting of 8.1 ± 0.2, 11.6 ± 0.2, 12.0 ± 0.2, 13.9 ± 0.2, 14.8 ± 0.2, 16.0 ± 0.2, 18.2 ± 0.2, 18.8 ± 0.2, 20.4 ± 0.2, 20.6 ± 0.2, 21.2 ± 0.2, 21.7 ± 0.2, 21.9 ± 0.2, 22.1 ± 0.2, 22.4 ± 0.2, and 23.4 ± 0.2.
A mass spectrometric method comprising: ionizing a sample and an internal standard having a known concentration in an ion source; introducing sample ions and internal standard ions into an ion trap; accumulating the sample ions and the internal standard ions in the ion trap at the same time; mass-selectively ejecting and detecting the internal standard ions from the ion trap while the sample ions are trapped within the ion trap; and thereafter, isolating precursor ions of the sample ions in the ion trap; dissociating the precursor ions to generate fragment ions; mass-selectively ejecting and detecting the fragment ions from the ion trap and calculating a concentration of the sample on the basis of an intensity of the detected internal standard ions and an intensity of the dissociated fragment ions of the sample. ionizing a sample and an internal standard having a known concentration in an ion source; introducing sample ions and internal standard ions into an ion trap; accumulating the sample ions and the internal standard ions in the ion trap at the same time; mass-selectively ejecting and detecting the internal standard ions from the ion trap while the sample ions are trapped within the ion trap; and thereafter, isolating precursor ions of the sample ions in the ion trap; dissociating the precursor ions to generate fragment ions; mass-selectively ejecting and detecting the fragment ions from the ion trap and calculating a concentration of the sample on the basis of an intensity of the detected internal standard ions and an intensity of the dissociated fragment ions of the sample.
Steering wheel rim of a motor vehicle, comprising an arrangement which covers the steering wheel rim, and having a fastening recess, the arrangement comprising a cover, consisting in particular of a flexible and/or non-slip material, and at least one fastening element, in particular a clamping element, for fastening the edges of the cover, applied around the steering wheel rim, in the fastening recess, the or at least one fastening element being formed as a light source and/or comprising at least one light source, characterised in that the fastening element comprises a light guide and/or is a light guide, at least one lamp, which can be coupled to a light guide of the fastening element, or to the fastening element formed as a light guide, being arranged in the fastening recess.
Use of a mushroom extract as a taste improving agent for a food or a drink, the mushroom extract being obtained by a production process comprising: a step of solvent-extracting at least one of a mushroom of the genus Boletus and a mushroom of the genus Amanita, thereby obtaining a solvent extract, and a step of removing a flavor component from the solvent extract by performing an adsorption treatment and removing an adsorbed fraction. a step of solvent-extracting at least one of a mushroom of the genus Boletus and a mushroom of the genus Amanita, thereby obtaining a solvent extract, and a step of removing a flavor component from the solvent extract by performing an adsorption treatment and removing an adsorbed fraction.
A method of selecting glioma therapy for a patient in need of such therapy, wherein the method comprises a) assessing the expression level of PME-1 in a surgical or biopsy specimen obtained from a diseased brain tissue; b) using the results obtained in step a) as criteria for selecting glioma therapy to which said patient is susceptible; wherein increased PME-1 expression indicates that said patient is not susceptible to monotherapy with a staurosporine derivative but said patient is susceptible to a combination therapy with a STS derivative and a PME-1 silencing agent; whereas intact PME-1 expression indicates that said patient is susceptible to glioma therapy with a STS derivative; wherein said STS derivative has the general Formula: wherein R' is H or alkyl; R1 and R2 are H or together form oxo; R3 and R4 are independently H, OH or together form oxo; R5, R6, R6', R7, and R8 are independently selected from the group consisting of H, alkyl, alkoxy, hydroxy, hydroxylakyl, alkoxycarbonyl, or mono- and dialkylamino; X is CH 2 or O; and n is 0 or 1; and wherein said PME-1 silencing agent is an RNAi molecule selected from small double-stranded RNAs (dsRNAs), small interfering RNAs (siRNAs), Dicer substrate siRNAs (DsiRNAs), artificial microRNA (miRNA) precursors, and short-hairpin RNAs (shRNAs). a) assessing the expression level of PME-1 in a surgical or biopsy specimen obtained from a diseased brain tissue; b) using the results obtained in step a) as criteria for selecting glioma therapy to which said patient is susceptible; wherein R' is H or alkyl; R1 and R2 are H or together form oxo; R3 and R4 are independently H, OH or together form oxo; R5, R6, R6', R7, and R8 are independently selected from the group consisting of H, alkyl, alkoxy, hydroxy, hydroxylakyl, alkoxycarbonyl, or mono- and dialkylamino; X is CH 2 or O; and n is 0 or 1; and wherein said PME-1 silencing agent is an RNAi molecule selected from small double-stranded RNAs (dsRNAs), small interfering RNAs (siRNAs), Dicer substrate siRNAs (DsiRNAs), artificial microRNA (miRNA) precursors, and short-hairpin RNAs (shRNAs).
A mobile electronic device, comprising: a display; a memory for storing a first application, a first identifier identifying the first application and a second identifier for identifying a second application, the first and second identifiers being stored in association with the first application, the first application being distinct from the second application, wherein the second application is not stored in the memory, and wherein the functionality provided by the first application comprises at least some of the functionality that would be provided by the second application; and, a processor interconnected with the display and the memory, the processor configured to control the display to generate a launch interface comprising a representation of the second identifier, the representation of the second identifier being selectable for causing the processor to launch the first application without launching the second application. a display; a memory for storing a first application, a first identifier identifying the first application and a second identifier for identifying a second application, the first and second identifiers being stored in association with the first application, the first application being distinct from the second application, wherein the second application is not stored in the memory, and wherein the functionality provided by the first application comprises at least some of the functionality that would be provided by the second application; and, a processor interconnected with the display and the memory, the processor configured to control the display to generate a launch interface comprising a representation of the second identifier, the representation of the second identifier being selectable for causing the processor to launch the first application without launching the second application.
A method of launching a plurality of spacecraft provided in a stack of spacecraft from a launch vehicle, the launch vehicle traveling along an in-track path, the method comprising: releasing, in a first separation event occurring at a first time, a first spacecraft from the stack of spacecraft using a first separation force having a first separation force in-track component along the in-track path; and releasing, in a second separation event occurring at a second time, a second spacecraft from the stack of spacecraft using a second separation force having a second separation force in-track component along the in-track path, wherein the second time occurs a first time delay after the first time, in which the first separation force in-track component is greater than the second separation force in-track component. releasing, in a first separation event occurring at a first time, a first spacecraft from the stack of spacecraft using a first separation force having a first separation force in-track component along the in-track path; and releasing, in a second separation event occurring at a second time, a second spacecraft from the stack of spacecraft using a second separation force having a second separation force in-track component along the in-track path, wherein the second time occurs a first time delay after the first time, in which the first separation force in-track component is greater than the second separation force in-track component.
Apparatus for the cleaning of the surfaces of handballs which have been treated with sticky adhering material where the apparatus comprises a partly open cabinet provided with a partial enclosure in which at least one heating element and at least one blower aggregate are placed, with an opening placed near a partly open area in the enclosure, where there is at least one rotationally-driven roller with protruding elements for mechanical processing of a cleaning area or relevant parts of the surface of a ball which is pressed against the protruding elements on the rotationally-driven roller characterised in that the apparatus is arranged so that the cabinet comprises an adjustable thermostat which is connected to the heating element for adjustment of the temperature of the air emitted from the blower aggregate and wherein the apparatus is provided with a temperature sensor and a control unit for controlling the temperature of the hot air blown onto the surface of the handball.