mhurhangee/ep-ind-claims huggingface dataset:
A chimeric antigen receptor polypeptide comprising an antigen binding domain; a hinge domain; a transmembrane domain(s) and one or more intracellular cell signaling domain, wherein the antigen binding domain of said CAR comprises (i) an immunoglobulin light chain variable domain comprising the CDR sequences: CDR1 has NIATDV, SEQ ID NO: 1; CDR2 has SASF, SEQ ID NO: 2; and CDR3 has SEPEPY, SEQ ID NO: 3; and (ii) an immunoglobulin heavy chain variable domain comprising the CDR sequences: CDR1 has LSGDW, SEQ ID NO: 5; CDR2 has EISAAGGYTD, SEQ ID NO: 6; and CDR3 has ESRVSFEAAMDY, SEQ ID NO: 7; wherein the CAR polypeptide selectively binds to a HER1/HER3 heterodimer complex.
Squeegee assembly for a floor surface maintenance machine comprising: - a frame having a plurality of tabs protruding from a curved surface; - a front squeegee blade having a plurality of apertures adapted to receive at least portions of the plurality of tabs of said frame; - a rear squeegee blade; and - a clamp band, the squeegee assembly being characterized in that it further comprises a vacuum core having a surface adapted to receive portions of said plurality of tabs of said frame extending through apertures of the front squeegee blade, with said vacuum core having a plurality of tabs protruding from a curved rear surface; in that the rear squeegee blade has a plurality of apertures adapted to receive at least portions of said plurality of tabs of said vacuum core; and in that the clamp band secures the frame, front and rear squeegee blades and vacuum core together. - a frame having a plurality of tabs protruding from a curved surface; - a front squeegee blade having a plurality of apertures adapted to receive at least portions of the plurality of tabs of said frame; - a rear squeegee blade; and - a clamp band,
An apparatus comprising: a dispersive-collimating element, a Faraday material apparatus and a focusing-dispersive element (22, 28) such that said dispersive-collimating element assigns each beam wavelength to a particular spatial position, the beams being parallel one to the other, said Faraday material apparatus provides a polarization rotation independently for each wavelength, and said focusing-dispersive element (22, 28) recombines the wavelengths into one single beam, characterized in that said Faraday material apparatus comprises a Faraday material with a non-zero Verdet coefficient located within a magnetic field so that each wavelength propagates for a different length within the Faraday material so as to generate a polarization rotation that is the same for all the wavelengths.
A component assembly comprising a sheet metal part and a rivet nut which is configured to be riveted to sheet metal parts which can have different sheet metal thicknesses within a sheet metal thickness range, wherein the rivet nut has a body part and a cylindrical rivet portion; wherein the body part has a centrally arranged thread cylinder, a ring-shaped support surface coaxial to the thread cylinder in a plane perpendicular to the longitudinal axis of the thread cylinder and an axially aligned ring groove which is arranged radially inside of the ring-shaped support surface and radially outside of the cylindrical rivet portion and which merges on the radially inner side into the outer surface of the cylindrical rivet portion; and wherein ribs providing security against rotation are provided in the region of the ring groove, characterized in that the ring groove has, viewed in an axial sectional plane, a U-shaped cross-section with a radially outer side wall which is made relatively steep and has, at the steepest point, an inclination to the middle longitudinal axis of the rivet nut in the range from approximately 45° to approximately -20; in that the volume of the ring groove is selected such that, after the riveting of the rivet element to the sheet metal part, the volume of the respective folded over region of the rivet portion over a range of sheet metal thicknesses which is matched to the respective thread size has space within the ring recess formed by shaping the sheet metal part into the ring groove of the element and does not project beyond the side of the shaped sheet metal remote from the ring-shaped support surface; and in that the sheet metal thickness range matched to the respective sheet metal thickness is selected as follows: Thread M6 or 1/4 UNF - sheet metal thickness range preferably 0.5 mm to 2.5 mm, at least 0.6 mm to 1.5 mm; Thread M8 or 5/16 UNF - sheet metal thickness range preferably 0.5 mm to 2.5 mm, at least 0.6 mm to 1.5 mm; Thread M10 or 3/8 UNF - sheet metal thickness range preferably 1.0 mm to 3.0 mm, at least 1.0 mm to 2.5 mm; Thread M12 or 7/16 UNF - sheet metal thickness range preferably 1.0 mm to 3.5 mm, at least 1.0 mm to 2.5 mm. Thread M6 or 1/4 UNF - sheet metal thickness range preferably 0.5 mm to 2.5 mm, at least 0.6 mm to 1.5 mm; Thread M8 or 5/16 UNF - sheet metal thickness range preferably 0.5 mm to 2.5 mm, at least 0.6 mm to 1.5 mm; Thread M10 or 3/8 UNF - sheet metal thickness range preferably 1.0 mm to 3.0 mm, at least 1.0 mm to 2.5 mm; Thread M12 or 7/16 UNF - sheet metal thickness range preferably 1.0 mm to 3.5 mm, at least 1.0 mm to 2.5 mm.
Press-hardening tool for producing hardened shaped sheet metal parts from a sheet steel material, comprising at least two tool parts (200, 300), which are movable in relation to each other in a working direction and between which, by applying a pressing force acting in the working direction, a heated sheet steel material can be shaped and cooled and thereby hardened, characterized in that at least one of the tool parts (200, 300) is formed in a segmented manner and has at least a first segment having a shaped section extending transversely to the working direction and at least a second segment having a shaped section extending steeply with respect to the working direction, wherein the first segment is arranged in a movable manner on the relevant tool part (200, 300) and, when a certain pressing force is exceeded, can yield to the pressing force applied, in order as a result to allow further moving together of the tool parts (200, 300) and associated intensified pressing of the second segment against the sheet steel material.
A fume exhaust assembly for a gas water heater, comprising a fume exhaust hood, wherein the fume exhaust hood is provided with a fume exhaust pipe, wherein the fume exhaust pipe and the fume exhaust hood are integrally formed, wherein an interior of the fume exhaust hood is provided with a cavity, a bottom of the cavity is open, and the fume exhaust pipe is arranged at a top of the fume exhaust hood and is in communication with the cavity, wherein the fume exhaust assembly further comprises a condensed water collection box, and the fume exhaust hood is mounted on a top of the condensed water collection box, wherein the condensed water collection box comprises a box body bottom wall and a box body side wall extending upward from an edge of the bottom wall, the top of the condensed water collection box is provided with an opening, and a bottom of the fume exhaust hood is connected to a top of the box body side wall, characterized in that the bottom wall is provided with a support portion comprising a stud and a support protrusion, the fume exhaust hood is provided with a rib at a side of the bottom of the fume exhaust hood close to the support portion, the rib is provided with a through hole, the rib is abutted against a top of the support protrusion, the through hole is aligned with the stud, a heat exchanger of the gas water heater is connected to the stud by a screw, so that the rib is pressed and fixed on the support protrusion. wherein an interior of the fume exhaust hood is provided with a cavity, a bottom of the cavity is open, and the fume exhaust pipe is arranged at a top of the fume exhaust hood and is in communication with the cavity, wherein the fume exhaust assembly further comprises a condensed water collection box, and the fume exhaust hood is mounted on a top of the condensed water collection box, wherein the condensed water collection box comprises a box body bottom wall and a box body side wall extending upward from an edge of the bottom wall, the top of the condensed water collection box is provided with an opening, and a bottom of the fume exhaust hood is connected to a top of the box body side wall, characterized in that the bottom wall is provided with a support portion comprising a stud and a support protrusion, the fume exhaust hood is provided with a rib at a side of the bottom of the fume exhaust hood close to the support portion, the rib is provided with a through hole, the rib is abutted against a top of the support protrusion, the through hole is aligned with the stud, a heat exchanger of the gas water heater is connected to the stud by a screw, so that the rib is pressed and fixed on the support protrusion.
An height-adjustable drain fitting for a flushing tank, comprising a drain valve housing having an interior, a valve body that is mounted in the interior and can be lifted along an actuating axis so as to initiate flushing, an actuating unit that acts on the valve body and controls the movement of the valve body, which actuating unit is arranged in the interior, an actuating member which acts on the actuating unit so as to initiate flushing, an actuating element that acts on the actuating member and by means of which the actuating member can be actuated by the user, and a mounting element having a receptacle for mounting the actuating member, wherein the mounting element is displaceable relative to the drain valve housing and is connected thereto for adjusting the height, and the receptacle is spaced apart from the drain valve housing, wherein the actuating member has the shape of an actuating rod which extends out of the interior of the drain valve housing in the direction of the actuating axis and is designed so as to be height-adjustable, characterized in that the drain fitting comprises a locking element that is mounted on the drain valve housing and by means of which the mounting element can be locked on the drain valve housing, and in that the actuating rod is fed through the locking element, wherein the actuating rod is designed to be movable relative to the locking element in the direction of the actuating axis, and wherein the actuating rod is designed to be rotationally fixed with respect to the locking element. a drain valve housing having an interior, a valve body that is mounted in the interior and can be lifted along an actuating axis so as to initiate flushing, an actuating unit that acts on the valve body and controls the movement of the valve body, which actuating unit is arranged in the interior, an actuating member which acts on the actuating unit so as to initiate flushing, an actuating element that acts on the actuating member and by means of which the actuating member can be actuated by the user, and a mounting element having a receptacle for mounting the actuating member, wherein the mounting element is displaceable relative to the drain valve housing and is connected thereto for adjusting the height, and the receptacle is spaced apart from the drain valve housing, wherein the actuating member has the shape of an actuating rod which extends out of the interior of the drain valve housing in the direction of the actuating axis and is designed so as to be height-adjustable, characterized in that the drain fitting comprises a locking element that is mounted on the drain valve housing and by means of which the mounting element can be locked on the drain valve housing, and in that the actuating rod is fed through the locking element, wherein the actuating rod is designed to be movable relative to the locking element in the direction of the actuating axis, and wherein the actuating rod is designed to be rotationally fixed with respect to the locking element.
A method for manufacturing a curtain configured to reduce agitation in front of a substantially vertical wall which is at least partially submerged in a port-type infrastructure under the effect of incident waves, the method comprising the following steps: - dimensioning the curtain according to features related to the vertical wall and to the incident waves, said curtain being formed of a plurality of unit blocks assembled together by means of flexible links so as to form an articulated grid of blocks, - manufacturing the curtain thus dimensioned, the manufacturing method being characterised in that the curtain is dimensioned so that its reflection coefficient (Cr) is less than 1 and in that the incident waves have periods comprised within a given range of periods, the curtain being dimensioned so that its natural mode n°3 and/or n°4 is comprised within the given range of periods. - dimensioning the curtain according to features related to the vertical wall and to the incident waves, said curtain being formed of a plurality of unit blocks assembled together by means of flexible links so as to form an articulated grid of blocks, - manufacturing the curtain thus dimensioned,
A curable composition comprising 100 parts by mass of a flexible epoxy resin, 1 to 150 parts by mass of polymer fine particles, and 1 to 200 parts by mass of an epoxy curing agent, wherein a cured product obtained by curing a composition containing the flexible epoxy resin has a type A durometer hardness value determined as defined in the description, of 1 to 95, the flexible epoxy resin has an epoxy equivalent of from 350 to 4000 g/eq, the polymer fine particles have a core-shell structure and at least two layers of a core layer and a shell layer, the core layer of the polymer fine particles has a glass transition temperature of more than 0 °C as calculated by the following numerical formula, the polymer fine particles have a volume average particle diameter (Mv) of 10 to 2000 nm, as measured by the method given in the present description, a cured product obtained by curing the curable composition has a type A durometer hardness of 5 to 95 at 23 °C as measured by JIS K6253-3, 1 / Tg = Σ M i / Tg i wherein M i represents a mass fraction of a monomer unit i selected from butadiene unit and a non-crosslinking monomer unit constituting the core layer of the polymer fine particles, and Tg i represents a glass transition temperature of a homopolymer composed of the monomer unit i, where the values of Tg i are determined as described in the present description.
A method of assembling a syngas cooler, said method comprising: coupling a plurality of supply lines within a cooler shell; coupling a plurality of heat transfer panels within the cooler shell, wherein each of the plurality of heat transfer panels includes a plurality of tubes coupled together with a membrane; coupling a heat transfer enclosure within the cooler shell such that the heat transfer enclosure substantially encircles and isolates the plurality of heat transfer panels from the cooler shell; positioning a manifold that includes an annular ring portion, a plurality of first outlets, a plurality of second outlets, and a plurality of inlets such that each first outlet is circumferentially spaced between a corresponding one of the inlets and a corresponding one of the second outlets, wherein the number of the first outlets, the number of second outlets, and the number of inlets are equal; coupling the manifold in flow communication with the supply lines, the heat transfer enclosure, and the heat transfer panels; coupling each of the first outlets in flow communication with the heat transfer enclosure; coupling each second outlet in flow communication with a corresponding one of the plurality of heat transfer panels, by coupling a lower inlet tube of the heat transfer panel to each of the plurality of tubes of the heat transfer panel and to the second outlet; and coupling each of the inlets in flow communication with a supply line coupling a plurality of supply lines within a cooler shell; coupling a plurality of heat transfer panels within the cooler shell, wherein each of the plurality of heat transfer panels includes a plurality of tubes coupled together with a membrane; coupling a heat transfer enclosure within the cooler shell such that the heat transfer enclosure substantially encircles and isolates the plurality of heat transfer panels from the cooler shell; positioning a manifold that includes an annular ring portion, a plurality of first outlets, a plurality of second outlets, and a plurality of inlets such that each first outlet is circumferentially spaced between a corresponding one of the inlets and a corresponding one of the second outlets, wherein the number of the first outlets, the number of second outlets, and the number of inlets are equal; coupling the manifold in flow communication with the supply lines, the heat transfer enclosure, and the heat transfer panels; coupling each of the first outlets in flow communication with the heat transfer enclosure; coupling each second outlet in flow communication with a corresponding one of the plurality of heat transfer panels, by coupling a lower inlet tube of the heat transfer panel to each of the plurality of tubes of the heat transfer panel and to the second outlet; and coupling each of the inlets in flow communication with a supply line
A computer-implemented system for anonymizing encrypted data, comprising: an identification module to identify at least one attribute within a dataset for anonymization, wherein each attribute is associated with a plurality of data values; an encryption module to encrypt each data value for each identified attribute while maintaining an order of the encrypted data value; an order module to order the encrypted values; a segmentation module to segment the ordered encrypted data values into two or more classes based on the ordering of the encrypted data values; a determination module to determine a range of the encrypted data values within each of the segmented classes; and an assignment module to assign the range of one of the classes to each encrypted data value within that class as anonymized data, wherein the modules are executed via a processor. an identification module to identify at least one attribute within a dataset for anonymization, wherein each attribute is associated with a plurality of data values; an encryption module to encrypt each data value for each identified attribute while maintaining an order of the encrypted data value; an order module to order the encrypted values; a segmentation module to segment the ordered encrypted data values into two or more classes based on the ordering of the encrypted data values; a determination module to determine a range of the encrypted data values within each of the segmented classes; and an assignment module to assign the range of one of the classes to each encrypted data value within that class as anonymized data, wherein the modules are executed via a processor.
A recording device (3, 3a), comprising: a determination reference value obtaining section (372, 372a) configured to obtain a determination reference value on a basis of signal values during a reference time period, the reference time period being a predetermined time period after a start of input of time-series signal values, the determination reference value indicating a feature of the signal values during the reference time period, and a recording control section (371, 371a) configured to (i) obtain information on a recording start condition on a basis of the determination reference value, the recording start condition indicating whether, as compared to the signal values during the reference time period, there has been a large change among signal values during a timing determining process period which starts after the reference time period has elapsed, and (ii) start recording signal values in response to the recording start condition becoming satisfied, wherein the determination reference value obtaining section (372, 372a) is configured to obtain, as the determination reference value, a difference between a maximum value (Vmax) and a minimum value (Vmin) of the signal values during the reference time period, and the recording control section (371, 371a) is configured to determine that the recording start condition has become satisfied, on a basis of a difference between a maximum value (Vmax) and a minimum value (Vmin) of the signal values during the timing determining process period exceeding a threshold value (Vth 1). a determination reference value obtaining section (372, 372a) configured to obtain a determination reference value on a basis of signal values during a reference time period, the reference time period being a predetermined time period after a start of input of time-series signal values, the determination reference value indicating a feature of the signal values during the reference time period, and a recording control section (371, 371a) configured to (i) obtain information on a recording start condition on a basis of the determination reference value, the recording start condition indicating whether, as compared to the signal values during the reference time period, there has been a large change among signal values during a timing determining process period which starts after the reference time period has elapsed, and (ii) start recording signal values in response to the recording start condition becoming satisfied, wherein the determination reference value obtaining section (372, 372a) is configured to obtain, as the determination reference value, a difference between a maximum value (Vmax) and a minimum value (Vmin) of the signal values during the reference time period, and the recording control section (371, 371a) is configured to determine that the recording start condition has become satisfied, on a basis of a difference between a maximum value (Vmax) and a minimum value (Vmin) of the signal values during the timing determining process period exceeding a threshold value (Vth 1).
A method for manufacturing a concrete ceiling in a building, having the following steps • creating a horizontal formwork; • distributing a filler on the formwork, wherein the filler consists of a mixture of a granulate and a binder; • curing the binder and forming a first layer; • placing of reinforcement elements and optionally further elements to be embedded; • pouring and setting a concrete layer above the first layer; characterised in that the first layer is a granulate layer and the mixing ratio of granulate and binder is selected in a manner such that on the one hand the grains of the granulate are connected to one another by way of contact surfaces of the individual grains bonding to one another and on the other hand continuous intermediate spaces remain between the grains, said intermediate spaces forming channels through the granulate layer and effecting a sound absorption in the granulate layer, and that a sealing layer is deposited on the granulate layer before pouring the concrete layer. • creating a horizontal formwork; • distributing a filler on the formwork, wherein the filler consists of a mixture of a granulate and a binder; • curing the binder and forming a first layer; • placing of reinforcement elements and optionally further elements to be embedded; • pouring and setting a concrete layer above the first layer;