mhurhangee/ep-ind-claims huggingface dataset:
Permanently excited synchronous machine, - with a stator having a winding system arranged in grooves of a laminated core of the stator, the winding system forming winding overhangs on the end faces of the laminated core, - with a rotor which is non-rotatably connected to a shaft, - wherein the rotor has ferrite magnets which extend axially over the end faces of the stator, - wherein due to electromagnetic interaction across an air gap between stator and rotor during operation of the permanently excited synchronous machine there is a rotation about an axis of rotation in the direction of a direction of rotation, - characterised in that - provided radially across the respective ferrite magnets of a magnetic pole is a flux concentration element which bundles the magnetic field lines of the ferrite magnets onto the axial length of the laminated core of the stator, - wherein a fixing element for holding and positioning the flux concentration elements is provided on the ferrite magnets of a magnetic pole. - with a stator having a winding system arranged in grooves of a laminated core of the stator, the winding system forming winding overhangs on the end faces of the laminated core, - with a rotor which is non-rotatably connected to a shaft, - wherein the rotor has ferrite magnets which extend axially over the end faces of the stator, - wherein due to electromagnetic interaction across an air gap between stator and rotor during operation of the permanently excited synchronous machine there is a rotation about an axis of rotation in the direction of a direction of rotation, - characterised in that - provided radially across the respective ferrite magnets of a magnetic pole is a flux concentration element which bundles the magnetic field lines of the ferrite magnets onto the axial length of the laminated core of the stator, - wherein a fixing element for holding and positioning the flux concentration elements is provided on the ferrite magnets of a magnetic pole.
Sliding window, blocking an open surface in a wall separating the inside from the outside, and comprising a sash and a frame, characterized in that it comprises: - a passive acoustic silencer comprising two acoustically absorbent parallel plates (130, 330, 340, 140), extending by 25 cm in a median plane normal to the open surface, one of them being secured to the sash and the other being secured to the frame, the displacement of the sash with respect to the frame creating a gap between said plates, the gap having a thickness equal to the opening of the window. - a passive acoustic silencer comprising two acoustically absorbent parallel plates (130, 330, 340, 140), extending by 25 cm in a median plane normal to the open surface, one of them being secured to the sash and the other being secured to the frame, the displacement of the sash with respect to the frame creating a gap between said plates, the gap having a thickness equal to the opening of the window.
Optical sensor for a pH-value measurement of a medium in microscopes, tubes or containers, comprising a photoluminescent and/or fluorescent layer, a light source for exciting the photoluminescence and/or the fluorescence of said layer, and a detector for detecting the photoluminescence intensity and/or the fluorescence intensity, and driving electrodes for applying a potential, wherein the optical sensor further comprises an electrically conductive support layer on which the photoluminescent and/or fluorescent layer is deposited, the photoluminescent and/or fluorescent layer having at least one electrical contact with the drive, so that a potential can be applied to the photoluminescent and/or fluorescent layer and this layer, in conjunction with the carrier layer, can thus be electrically switched as a working electrode, and wherein the optical sensor is equipped with at least one counter electrode and at least one reference electrode, which are in contact with the medium and which are each connected by means of at least one electrical contact to the drive of the electrodes, the photoluminescent and/or fluorescent layer being in the form of nanowires, the sensor being configured to carry out a pH measurement, to excite the said layer with the light source and to detect the photoluminescence intensities or fluorescence intensities and at the same time to apply a potential to the working electrode.
A prosthetic aortic valve, comprising: an annular stent frame (5010a, 5010b) including an annulus inflow portion configured for disposition, in use, adjacent a patient's native aortic valve annulus, an aortic outflow portion configured for disposition, in use, in the patient's native aorta downstream from at least a portion of the patient's native valsalva sinus, and a plurality of connecting struts (5284a, 5284b) that constitute substantially the sole connection between the annulus inflow portion and the aortic outflow portion, the annulus inflow portion defining a plurality of commissure tips that are spaced from one another in the annular direction around the annulus inflow portion, the commissure tips being the features of the annulus inflow portion that are closest to the aortic outflow portion, each of the connecting struts (5284a, 5284b) being connected to the annulus inflow portion only at points that are farther from the aortic outflow portion than the commissure tips, and each of the connecting struts (5284a, 5284b) being adjacent to an associated one of the commissure tips, each of the connecting struts (5284a, 5284b), in use, bulging radially outwardly into the sinus of valsalva between the annulus inflow portion and the aortic outflow portion; and a plurality of valve leaflets supported by the annulus inflow portion, characterized in that the annulus inflow portion has at least one interruption in the annular direction. an annular stent frame (5010a, 5010b) including an annulus inflow portion configured for disposition, in use, adjacent a patient's native aortic valve annulus, an aortic outflow portion configured for disposition, in use, in the patient's native aorta downstream from at least a portion of the patient's native valsalva sinus, and a plurality of connecting struts (5284a, 5284b) that constitute substantially the sole connection between the annulus inflow portion and the aortic outflow portion, the annulus inflow portion defining a plurality of commissure tips that are spaced from one another in the annular direction around the annulus inflow portion, the commissure tips being the features of the annulus inflow portion that are closest to the aortic outflow portion, each of the connecting struts (5284a, 5284b) being connected to the annulus inflow portion only at points that are farther from the aortic outflow portion than the commissure tips, and each of the connecting struts (5284a, 5284b) being adjacent to an associated one of the commissure tips, each of the connecting struts (5284a, 5284b), in use, bulging radially outwardly into the sinus of valsalva between the annulus inflow portion and the aortic outflow portion; and a plurality of valve leaflets supported by the annulus inflow portion, characterized in that the annulus inflow portion has at least one interruption in the annular direction.
A method for updating a sleep identifier, SLPID, by a base station, BS, in a wireless communication system, wherein an SLPID is uniquely assigned by the BS when a mobile station, MS is instructed by the BS to enter a sleep mode, the method being characterized by comprising the steps of: determining if there is the MS, in sleep mode operation, requiring an SLPID update; and broadcasting a message including SLPID update information, if there is the MS requiring the SLPID update, wherein the SLPID update information includes information on an old SLPID allocated to the MS and a new SLPID for updating the old SLPID, and wherein the message includes an indication indicating that there is no traffic directed to the MS. determining if there is the MS, in sleep mode operation, requiring an SLPID update; and broadcasting a message including SLPID update information, if there is the MS requiring the SLPID update, wherein the SLPID update information includes information on an old SLPID allocated to the MS and a new SLPID for updating the old SLPID, and wherein the message includes an indication indicating that there is no traffic directed to the MS.
A plasticizer composition comprising: a terephthalate-based material; and an epoxy-based alkyl ester compound represented by Formula 1 below wherein a weight ratio of the terephthalate-based material to the epoxy-based alkyl ester compound is 99:1 to 1:99, the epoxy-based alkyl ester compound is a single compound or a mixture of two or more compounds, and the terephthalate-based material is a mixture of two or more compounds selected from the group consisting of di(2-ethylhexyl)terephthalate (DEHTP), diisononyl terephthalate (DINTP), dibutyl terephthalate (DBTP), butyl isononyl terephthalate (BINTP), butyl(2-ethylhexyl)terephthalate (BEHTP), and (2-ethylhexyl)isononyl terephthalate (EHINTP): wherein, in Formula 1, R1 is a C8-C20 alkyl group containing one or more epoxy groups, and R2 is a C4 or C8 alkyl group. wherein a weight ratio of the terephthalate-based material to the epoxy-based alkyl ester compound is 99:1 to 1:99, the epoxy-based alkyl ester compound is a single compound or a mixture of two or more compounds, and the terephthalate-based material is a mixture of two or more compounds selected from the group consisting of di(2-ethylhexyl)terephthalate (DEHTP), diisononyl terephthalate (DINTP), dibutyl terephthalate (DBTP), butyl isononyl terephthalate (BINTP), butyl(2-ethylhexyl)terephthalate (BEHTP), and (2-ethylhexyl)isononyl terephthalate (EHINTP): wherein, in Formula 1, R1 is a C8-C20 alkyl group containing one or more epoxy groups, and R2 is a C4 or C8 alkyl group.
An electronic device comprising: a printed circuit board; a substrate, wherein the substrate is over the printed circuit board; at least two heat sources over the substrate; and a segmented heatsink secured to the printed circuit board, wherein the segmented heatsink comprises: a plurality of securing means, the segmented heatsink being secured to the printed circuit board using the plurality of securing means; loading arms (122; 134) extending from the securing means; and at least two independent heatsink segments supported by at least two of the loading arms (122; 134), wherein each heatsink segment corresponds to at least one heat source from the at least two heat sources and is configured to draw heat from the corresponding at least one heat source, wherein the at least two heat sources are at a different height relative to each other" a number of the plurality of securing means is equal to or less than twice the amount of the at least two heat sources on the substrate, a height of the plurality of securing means is less than a height of each of the at least two heat sources, and the at least two heatsink segments are at a different height. a printed circuit board; a substrate, wherein the substrate is over the printed circuit board; at least two heat sources over the substrate; and a segmented heatsink secured to the printed circuit board, wherein the segmented heatsink comprises: a plurality of securing means, the segmented heatsink being secured to the printed circuit board using the plurality of securing means; loading arms (122; 134) extending from the securing means; and at least two independent heatsink segments supported by at least two of the loading arms (122; 134), wherein each heatsink segment corresponds to at least one heat source from the at least two heat sources and is configured to draw heat from the corresponding at least one heat source, wherein the at least two heat sources are at a different height relative to each other" a number of the plurality of securing means is equal to or less than twice the amount of the at least two heat sources on the substrate, a height of the plurality of securing means is less than a height of each of the at least two heat sources, and the at least two heatsink segments are at a different height. a plurality of securing means, the segmented heatsink being secured to the printed circuit board using the plurality of securing means; loading arms (122; 134) extending from the securing means; and at least two independent heatsink segments supported by at least two of the loading arms (122; 134), wherein each heatsink segment corresponds to at least one heat source from the at least two heat sources and is configured to draw heat from the corresponding at least one heat source, wherein the at least two heat sources are at a different height relative to each other" a number of the plurality of securing means is equal to or less than twice the amount of the at least two heat sources on the substrate, a height of the plurality of securing means is less than a height of each of the at least two heat sources, and the at least two heatsink segments are at a different height.
A method for preparing fish meat depleted in blood, comprising the steps of: a) cutting one or more arteries of a fish between the heart and the gills and b) subjecting the fish to electrical impulses for stimulating the heart to pump out the blood through a cut artery, wherein the electrical impulses are generated by intermittent application of a direct current, wherein the electrical impulses are generated by application to the fish of a direct current for 1/50-2 seconds, and wherein the pause between two electrical impulses is 1 second or more. a) cutting one or more arteries of a fish between the heart and the gills and b) subjecting the fish to electrical impulses for stimulating the heart to pump out the blood through a cut artery, wherein the electrical impulses are generated by intermittent application of a direct current, wherein the electrical impulses are generated by application to the fish of a direct current for 1/50-2 seconds, and wherein the pause between two electrical impulses is 1 second or more.
Linear compressor comprising a piston housing and a compressor piston movable back and forth therein along an axis, the compressor piston being supported in the piston housing by means of a housing wall having openings and by means of gas flowing through the openings, characterised in that the openings are pores and that the local flow resistance through the housing wall varies along the axis.
An absorbent article comprising a layered structure with an absorbent material sandwiched between at least two layers (120, 122) of said layered structure and at least one elongate tab (100; 200; 300), each elongate tab comprising an attached portion (107; 201; 301) by which the tab is attached to at least a first layer (210; 310) of the layered structure, a fastening portion (106; 202; 302) provided for releasably engaging a landing zone on the absorbent article and a stretchable portion in between the attached portion and the fastening portion, wherein each tab is a film, a nonwoven web, a sheet or a laminate which comprises a complete layer (204; 304) which is made of a predetermined material which is deformable by means of an energy source, wherein the attached portion comprises a plurality of surface protrusions (205; 305) which are integrally formed of said material, each of said surface protrusions comprising a base portion and a head portion above the base portion, and wherein the attached portion is attached to said first layer of the layered structure by means of deformed head portions of at least some of said surface protrusions.
A synergistic combination of an antibody specific for CD38 comprising an HCDR1 of sequence GFTFSSYYMN (SEQ ID NO: 1), an HCDR2 of sequence GISGDPSNTYYADSVKG (SEQ ID NO: 2), an HCDR3 of sequence DLPLVYTGFAY (SEQ ID NO: 3), an LCDR1 of sequence SGDNLRHYYVY (SEQ ID NO: 4), an LCDR2 of sequence GDSKRPS (SEQ ID NO: 5), and an LCDR3 of sequence QTYTGGASL (SEQ ID NO: 6) and melphalan for use in the treatment of multiple myeloma.
A method of encoding or decoding a picture, comprising for a current block of the picture: determining (S1010, S1020) whether or not the following condition is satisfied: the current block is a non-boundary block not located at a boundary of the picture, wherein the current block is determined not to be a boundary block located at the boundary if x0 + cbWidth is smaller than or equal to a picture width, pic_width_in_luma_samples, of the picture and y0 + cbHeight is smaller than or equal to a picture height, pic_height_in_luma_samples, of the picture wherein (x0,y0) is a location of a top-left luma sample of the current block, cbWidth is a width of the current block, and cbHeight is a height of the current block; and a multi-type tree depth, mttDepth, resulting from multi-type tree splitting of a quadtree leaf, is greater than or equal to a sum of a maximum boundary multi-type partition depth, MaxMttDepth, and an offset, depthOffset, to the MaxMttDepth, wherein the depthOffset is initialized as 0 and increased by 1 if, in the multi-type splitting of the quadtree leaf, a binary tree split is performed; and not applying binary splitting to the current block in response to determining that said condition is satisfied; the method further comprising applying binary splitting to the current block in response to determining that the current block is a boundary block located at the boundary of the picture irrespective of whether or not mttDepth is greater than or equal to the sum of the MaxMttDepth and the depthOffset. determining (S1010, S1020) whether or not the following condition is satisfied: the current block is a non-boundary block not located at a boundary of the picture, wherein the current block is determined not to be a boundary block located at the boundary if x0 + cbWidth is smaller than or equal to a picture width, pic_width_in_luma_samples, of the picture and y0 + cbHeight is smaller than or equal to a picture height, pic_height_in_luma_samples, of the picture wherein (x0,y0) is a location of a top-left luma sample of the current block, cbWidth is a width of the current block, and cbHeight is a height of the current block; and a multi-type tree depth, mttDepth, resulting from multi-type tree splitting of a quadtree leaf, is greater than or equal to a sum of a maximum boundary multi-type partition depth, MaxMttDepth, and an offset, depthOffset, to the MaxMttDepth, wherein the depthOffset is initialized as 0 and increased by 1 if, in the multi-type splitting of the quadtree leaf, a binary tree split is performed; and not applying binary splitting to the current block in response to determining that said condition is satisfied; the method further comprising applying binary splitting to the current block in response to determining that the current block is a boundary block located at the boundary of the picture irrespective of whether or not mttDepth is greater than or equal to the sum of the MaxMttDepth and the depthOffset.
A table assembly comprising: first and second leg members (12b, 12c) that form first and second facing surfaces, respectively, a frame space located between the facing surfaces of the leg members (12b, 12c), each leg member (12b, 12c) forming a leg member top surface; an elongated channel member connected at opposite ends to the first and second facing surfaces and located within the frame space, the channel member forming a wire management channel along its length and a support surface along a first edge of the wire management channel; a table top member forming a table top surface and supported by the leg members (12b, 12c) wherein the table top member is at least partially located within the frame space and the table top surface is substantially flush with the leg member top surfaces, the table top member including a rear edge that is supported by the support surface so that the channel is located rearward of the table top member. first and second leg members (12b, 12c) that form first and second facing surfaces, respectively, a frame space located between the facing surfaces of the leg members (12b, 12c), each leg member (12b, 12c) forming a leg member top surface; an elongated channel member connected at opposite ends to the first and second facing surfaces and located within the frame space, the channel member forming a wire management channel along its length and a support surface along a first edge of the wire management channel; a table top member forming a table top surface and supported by the leg members (12b, 12c) wherein the table top member is at least partially located within the frame space and the table top surface is substantially flush with the leg member top surfaces, the table top member including a rear edge that is supported by the support surface so that the channel is located rearward of the table top member.
A simulation device (Hx) for simulating a peripheral circuit configuration for connecting to a control device, the simulation device (Hx) can be connected electrically to the control device, and the simulation device (Hx) comprising a first adjuster for influencing a first simulation current for forwarding from a first load connection of the control device to a first adjuster output of the first adjuster, and the first adjuster comprising a first multistage converter, and the first multistage converter comprising a first converter output, the first converter output being provided and equipped for being electrically connected to a connection on the converter side of a first inductivity component, the first adjuster output being implemented at the connection thereof on the control device side, and the flow direction of the first simulation current being reversible, and the simulation device (Hx) further comprising a processing unit (Cx) for executing a model code, a first switch control signal being able to be provided by means of the model code saved and executable on the processing unit (Cx) for forwarding to a first semiconductor switch control means, and the first semiconductor switch control means being provided and equipped for converting the first switch control signal into at least one first modified switch control signal (Ts11, Ts12, Ts13, Ts14) and for applying at least the first modified switch control signal (Ts11, Ts12, Ts13, Ts14) to the first multistage converter, the first adjuster comprising at least - a first supply potential connection comprising a first supply potential, and - a second supply potential connection comprising a second supply potential, and - a third supply potential connection comprising a third supply potential, the third supply potential being greater than the second supply potential, and the second supply potential being greater than the first supply potential, the first output voltage (Uout1) being adjustable between the third supply potential and the first supply potential by means of loading the control connections (G11, G12, G13, G14) of the first adjuster using the first switch control signal, and the first output voltage (Uout1) being referenced to a first reference potential. - a first supply potential connection comprising a first supply potential, and - a second supply potential connection comprising a second supply potential, and - a third supply potential connection comprising a third supply potential,