mhurhangee/ep-ind-claims huggingface dataset:
A multi-part bladed rotor for a fluid flow machine, in particular a gas or steam turbine or an axial compressor, with at least two discs, the end faces of which facing one another are positively and rotationally connectable in a fixed manner to one another in a separating plane, that in the separating plane a groove for receiving a blade root of at least one moving blade is formed, that in the separating plane face splines are formed, characterized in that both the positive interconnection of the discs and also the connection of the discs to the blade root of at least one moving blade takes place by way of the face splines.
A personal care system comprising: a stand having an outer perimeter defining a recessed handle mounting surface extending from a top surface of the stand toward a bottom surface of the stand; and a handle having an elongated body mounted to the stand; wherein at least one magnetic element retains the elongated body of the handle within the recessed handle mounting surface, characterized in that a frame having a pocket retaining the magnetic element against an inner wall of the handle mounting surface is positioned within the stand, and the stand comprises a base, a weight, a weight bracket retaining the weight within the pocket, one or more spacers (64, 66, 68) stacked on top of the weight bracket and the weight, and a cover mounted to the base, the cover containing the weight, the weight bracket and the one or more spacers (64, 66, 58), and the frame is positioned between the magnetic element and one or more of the spacers (64, 66, 68). a stand having an outer perimeter defining a recessed handle mounting surface extending from a top surface of the stand toward a bottom surface of the stand; and a handle having an elongated body mounted to the stand; wherein at least one magnetic element retains the elongated body of the handle within the recessed handle mounting surface, characterized in that a frame having a pocket retaining the magnetic element against an inner wall of the handle mounting surface is positioned within the stand, and the stand comprises a base, a weight, a weight bracket retaining the weight within the pocket, one or more spacers (64, 66, 68) stacked on top of the weight bracket and the weight, and a cover mounted to the base, the cover containing the weight, the weight bracket and the one or more spacers (64, 66, 58), and the frame is positioned between the magnetic element and one or more of the spacers (64, 66, 68).
A high temperature well treatment fluid for fracturing a subterranean formation having a temperature up to 500°F (260°C), the fluid comprising: (a) water; (b) a high molecular weight copolymer derived from acrylamide, acrylamidomethylpropanesulfonic acid, and vinyl phosphonate; (c) a crosslinking agent; (d) a pH buffer that maintains a pH of the high temperature well treatment fluid in a range of 4.5 to 5.25; and (e) a stabilizer which is an electron-donating compound selected from phenothiazine, phenothiazine derivatives and combinations thereof, or a stabilizer as aforesaid together with a secondary stabilizer comprising sodium thiosulfate. (a) water; (b) a high molecular weight copolymer derived from acrylamide, acrylamidomethylpropanesulfonic acid, and vinyl phosphonate; (c) a crosslinking agent; (d) a pH buffer that maintains a pH of the high temperature well treatment fluid in a range of 4.5 to 5.25; and (e) a stabilizer which is an electron-donating compound selected from phenothiazine, phenothiazine derivatives and combinations thereof, or a stabilizer as aforesaid together with a secondary stabilizer comprising sodium thiosulfate.
A method of preparing a highly dispersible whole grain flour comprising the sequential steps of: a) hydrolyzing a whole grain flour using alpha-amylase, the alpha-amylase hydrolyzes the whole grain flour while maintaining the integrity of the whole grain, and heating the hydrolyzed whole grain flour in a cooking extruder and gelatinizing the whole grain flour by mechanical action to form a whole grain flour dough, whereby the mixture resides in the extruder for a time sufficient to gelatinize and cook the starch, generally at least 1 minute, wherein prior to exiting the extruder, the hydrolyzed whole grain flour dough is heated to a temperature of 121°C- 149 °C (250-300° F) to deactivate the alpha-amylase; b) pelletizing the hydrolyzed whole grain flour dough to form hydrolyzed whole grain pellets; c) finely milling the hydrolyzed whole grain pellets to a particle size of 50-200 microns to form hydrolyzed whole grain particles; and d) agglomerating the hydrolyzed whole grain particles to form highly dispersible hydrolyzed whole grain flour. a) hydrolyzing a whole grain flour using alpha-amylase, the alpha-amylase hydrolyzes the whole grain flour while maintaining the integrity of the whole grain, and heating the hydrolyzed whole grain flour in a cooking extruder and gelatinizing the whole grain flour by mechanical action to form a whole grain flour dough, whereby the mixture resides in the extruder for a time sufficient to gelatinize and cook the starch, generally at least 1 minute, wherein prior to exiting the extruder, the hydrolyzed whole grain flour dough is heated to a temperature of 121°C- 149 °C (250-300° F) to deactivate the alpha-amylase; b) pelletizing the hydrolyzed whole grain flour dough to form hydrolyzed whole grain pellets; c) finely milling the hydrolyzed whole grain pellets to a particle size of 50-200 microns to form hydrolyzed whole grain particles; and d) agglomerating the hydrolyzed whole grain particles to form highly dispersible hydrolyzed whole grain flour.
A surveillance system comprising: a remote-control unit operatively connectable over a communication link to an aerial control unit mountable on an aircraft having autonomous flight capabilities; the aerial control unit comprising an electro-optic data acquisition device and a radar; the EO data acquisition device is configured, while the aircraft is airborne, to capture one or more images of a surveyed area and transmit the images to the remote control unit; the remote-control unit is configured to enable interaction of an operator with the one or more images captured by the EO data acquisition device for providing data identifying an area of interest in the one or more images, the area of interest selected to be scanned by the radar; the surveillance system further comprising a processing circuitry configured, in response to the data identifying an area of interest, to: register the one or more images to a respective map of the area displayed in the one or more images; identify a sub-area in the respective map corresponding to the area of interest identified in the images; and automatically generate a flight route for navigating the aircraft over the area of interest while enabling operating the radar; the aerial control unit is configured to: execute flight instructions for autonomously controlling the aircraft along the flight route and activate the radar for acquiring radar data output over the area of interest. the EO data acquisition device is configured, while the aircraft is airborne, to capture one or more images of a surveyed area and transmit the images to the remote control unit; the remote-control unit is configured to enable interaction of an operator with the one or more images captured by the EO data acquisition device for providing data identifying an area of interest in the one or more images, the area of interest selected to be scanned by the radar; the surveillance system further comprising a processing circuitry configured, in response to the data identifying an area of interest, to: register the one or more images to a respective map of the area displayed in the one or more images; identify a sub-area in the respective map corresponding to the area of interest identified in the images; and automatically generate a flight route for navigating the aircraft over the area of interest while enabling operating the radar; the aerial control unit is configured to: execute flight instructions for autonomously controlling the aircraft along the flight route and activate the radar for acquiring radar data output over the area of interest. register the one or more images to a respective map of the area displayed in the one or more images; identify a sub-area in the respective map corresponding to the area of interest identified in the images; and automatically generate a flight route for navigating the aircraft over the area of interest while enabling operating the radar; the aerial control unit is configured to: execute flight instructions for autonomously controlling the aircraft along the flight route and activate the radar for acquiring radar data output over the area of interest.
A method for identifying a plurality of immunoglobulin (Ig) heavy and Ig light chain pairs in a sample comprising antibody secreting cells (ASCs), comprising, subjecting the sample to conditions suitable for expansion of one or more of the ASCs to form an expanded sample; partitioning the expanded sample into a plurality of individual vessels to provide a plurality of sample subpopulations; subjecting one or more of the sample subpopulations to conditions suitable for expansion of one or more of the ASCs in the one or more of the sample subpopulations; to form one or more expanded sample subpopulations; lysing the ASCs in the sample subpopulations; amplifying the Ig heavy and Ig light chain nucleic acid; attaching a unique DNA barcode to the Ig heavy and Ig light chain nucleic acid in each subpopulation, wherein the unique DNA barcode sequence identifies the subpopulation from which the Ig heavy and Ig light chain nucleic acid originated; pooling the barcoded Ig heavy and Ig light chain nucleic acid; sequencing the barcoded Ig heavy and Ig light chain nucleic acid in each sample subpopulation to determine the identity of the Ig heavy and light Ig chains in each sample subpopulation; determining the observed distribution of each of the Ig heavy and Ig light chains across the sample subpopulations and calculating statistical probabilities that the observed distributions of Ig heavy and Ig light chain pairs in the sample subpopulations are independent from one another; identifying the plurality of Ig heavy and Ig light chain pairs based on the calculated statistical probabilities.
A control network system in which a plurality of nodes mutually exchange data, each of the plurality of nodes comprising: data transmission means for transmitting data of a local node to an adjacent node at a prescribed timing in every prescribed data exchange cycle; and relay means for, upon receipt of transmitted data from an arbitrary adjacent node, obtaining the transmitted data, and relaying the transmitted data to another adjacent node; a first timer configured to generate the prescribed timing, wherein the first timers of the nodes are configured to start at a same timing, and time-up occurs in the first timers after a same time period has passed such that the prescribed timings of the nodes are made to be a same timing. data transmission means for transmitting data of a local node to an adjacent node at a prescribed timing in every prescribed data exchange cycle; and relay means for, upon receipt of transmitted data from an arbitrary adjacent node, obtaining the transmitted data, and relaying the transmitted data to another adjacent node; a first timer configured to generate the prescribed timing, wherein the first timers of the nodes are configured to start at a same timing, and time-up occurs in the first timers after a same time period has passed such that the prescribed timings of the nodes are made to be a same timing.
A piezoelectric element comprising: a piezoelectric body layer; and electrodes (60, 80) which are provided at the piezoelectric body layer, wherein the piezoelectric body layer is formed of a complex oxide with a perovskite structure having a composition defined by the general expression: (Bi 1-a, Ba a)(Fe 1-b, Ti b)O 3 wherein in the complex oxide, a mole ratio of titanium to barium (Ti/Ba) is 1.17 or more and 1.45 or less, wherein the complex oxide further includes manganese and is characterized in that a mole ratio of titanium to manganese (Ti/Mn) in the complex oxide is 16.50 or more and 25.93 or less, a mole ratio of bismuth to barium (Bi/Ba) in the complex oxide is 2.33 or more and 3.64 or less, and a mole ratio of iron to titanium and manganese (Fe/(Ti+Mn)) in the complex oxide is 1.65 or more and 2.58 or less. a piezoelectric body layer; and electrodes (60, 80) which are provided at the piezoelectric body layer, wherein the piezoelectric body layer is formed of a complex oxide with a perovskite structure having a composition defined by the general expression: (Bi 1-a, Ba a)(Fe 1-b, Ti b)O 3 wherein in the complex oxide, a mole ratio of titanium to barium (Ti/Ba) is 1.17 or more and 1.45 or less, wherein the complex oxide further includes manganese and is characterized in that a mole ratio of titanium to manganese (Ti/Mn) in the complex oxide is 16.50 or more and 25.93 or less, a mole ratio of bismuth to barium (Bi/Ba) in the complex oxide is 2.33 or more and 3.64 or less, and a mole ratio of iron to titanium and manganese (Fe/(Ti+Mn)) in the complex oxide is 1.65 or more and 2.58 or less.
Strip-form supporting and insulating element for supporting and insulating a window frame: having a supporting part with a first longitudinally running side surface, which serves for butting against a wall, and having a second longitudinally running side surface, which runs essentially perpendicularly to the first side surface and serves for supporting the window frame, the supporting part being formed from a load-bearing material, and having an insulating part, which is connected to the supporting part, wherein the supporting part has a first limb, which comprises the first side surface, and a second limb, which is connected to the first limb and projects from the first limb at an angle, and wherein the insulating part is arranged in the region of an inner side surface of the first limb of the supporting part, said inner side surface being located opposite the first side surface, characterized in that the insulating part is connected in a pivotable manner to an outer peripheral region of the first limb or of the second limb, to be precise such that it can be pivoted between an operating position, in which it at least largely exposes the inner side surface of the first limb of the supporting part, and an insulating position, in which it at least largely covers the inner side surface of the first limb of the supporting part. having a supporting part with a first longitudinally running side surface, which serves for butting against a wall, and having a second longitudinally running side surface, which runs essentially perpendicularly to the first side surface and serves for supporting the window frame, the supporting part being formed from a load-bearing material, and having an insulating part, which is connected to the supporting part, wherein the supporting part has a first limb, which comprises the first side surface, and a second limb, which is connected to the first limb and projects from the first limb at an angle, and wherein the insulating part is arranged in the region of an inner side surface of the first limb of the supporting part, said inner side surface being located opposite the first side surface, characterized in that the insulating part is connected in a pivotable manner to an outer peripheral region of the first limb or of the second limb, to be precise such that it can be pivoted between an operating position, in which it at least largely exposes the inner side surface of the first limb of the supporting part, and an insulating position, in which it at least largely covers the inner side surface of the first limb of the supporting part.
Assembly for a tyre, comprising: a. a first fabric, having a longitudinal edge extending in a first general direction, comprising first filamentary elements, referred to as warp elements, that are substantially parallel to one another and that extend in a first direction, referred to as warp direction, substantially parallel to the first general direction, each first filamentary element comprising first and second filamentary members; b. a second fabric, comprising a longitudinal edge extending in a second direction, the first general direction and the second direction being substantially parallel; c. a load-bearing structure comprising load-bearing filamentary elements connecting the first fabric to the second fabric, each load-bearing filamentary element comprising at least one load-bearing filamentary portion extending between the first and the second fabric; the assembly being characterized in that, for any elongation of the first fabric in the first general direction of less than or equal to 2×π×H/L, the second filamentary member deforms plastically, with 0 < H ≤ K.H0, H0 representing in m a mean straight-line distance between an internal face of the first fabric and an internal face of the second fabric when each load-bearing filamentary portion is at rest, L representing the length at rest of the first fabric in the first general direction and K=1.3. a. a first fabric, having a longitudinal edge extending in a first general direction, comprising first filamentary elements, referred to as warp elements, that are substantially parallel to one another and that extend in a first direction, referred to as warp direction, substantially parallel to the first general direction, each first filamentary element comprising first and second filamentary members; b. a second fabric, comprising a longitudinal edge extending in a second direction, the first general direction and the second direction being substantially parallel; c. a load-bearing structure comprising load-bearing filamentary elements connecting the first fabric to the second fabric, each load-bearing filamentary element comprising at least one load-bearing filamentary portion extending between the first and the second fabric;
An application sharing method, performed by a first electronic device the method comprising: connecting the first electronic device to a second electronic device; displaying a first interface on a physical screen of the first electronic device when the first electronic device is connected to the second electronic device; wherein the first interface comprises a first application identifier list, wherein the first application identifier list comprises at least one application identifier each corresponding to an application that has been shared by the first electronic device to the second electronic device before current connection between the first electronic device and the second electronic device, and the first application identifier list is a list in which clickable application identifiers including the at least one application identifier are listed; obtaining a first target application identifier by a user clicking the first target application identifier in the first interface among the clickable application identifiers when the at least one application identifier each corresponding to an application that has been shared by the first electronic device to the second electronic device comprises the first target application identifier; and sharing, to the second electronic device, a running interface of a first target application corresponding to the first target application identifier by sending a screen recording of the running interface displayed in a virtual screen of the first electronic device. connecting the first electronic device to a second electronic device; displaying a first interface on a physical screen of the first electronic device when the first electronic device is connected to the second electronic device; wherein the first interface comprises a first application identifier list, wherein the first application identifier list comprises at least one application identifier each corresponding to an application that has been shared by the first electronic device to the second electronic device before current connection between the first electronic device and the second electronic device, and the first application identifier list is a list in which clickable application identifiers including the at least one application identifier are listed; obtaining a first target application identifier by a user clicking the first target application identifier in the first interface among the clickable application identifiers when the at least one application identifier each corresponding to an application that has been shared by the first electronic device to the second electronic device comprises the first target application identifier; and sharing, to the second electronic device, a running interface of a first target application corresponding to the first target application identifier by sending a screen recording of the running interface displayed in a virtual screen of the first electronic device.
A fixing system for a spare wheel for a motor vehicle of the type provided with a housing for said spare wheel, said fixing system comprising a first element with a first threaded end which is fixable to a bottom wall of said housing, said first element being in particular fixed in a central position of said bottom wall in order to vertically protrude into said housing, said fixing system also comprising a clamping nut and a fixing metal screw which comprises a threaded shaft and it is coupled with said clamping nut for constrain said spare wheel inside said housing, characterized in that said first element comprises a central metal body having an elongated shape and also comprising said first threaded end and a second end provided with a threaded hole, said first threaded end being screwed into said bottom wall of said housing for blocking in its position said first element and for fixing permanently the same to said housing, said threaded shaft of said fixing metal screw being screwed into said threaded hole of said second end of said central metal body for making said fixing metal screw integral with said first element, furthermore said first element comprising a polymeric outer portion made of a polymeric material which envelops said central metal body.
A supporting device for the mounting and alignment of a component in a desired orientation, which has at least two bearing supports, at least two bearing head units, and at least two bearing head reception units for purposes of forming at least two support points, wherein either the bearing head units or the bearing head reception units are arranged on the bearing supports, characterised in that, the supporting device has at least one deformation zone, which can be elastically deformed in the course of active engagement of the bearing head unit with the bearing head reception unit, and in that the supporting device has at least one measurement device for purposes of registering and evaluating an elastic deformation of the at least one deformation zone and for evaluating a necessary supporting force applied by each support point, at least one actuator for purposes of traversing the support points relative to one another orthogonally to the support plane of the component, and a control device for purposes of automatic activation of at least the one actuator on the basis of the evaluated supporting force.