mhurhangee/ep-ind-claims huggingface dataset:
A kit of parts comprising at least one stencil together with a device for producing patterned effects in the hair, the device comprising a substantially planar element having means to engage the at least one stencil, the planar element being provided with at least one indentation or at least one protrusion, the stencil being engageable with the planar element of the device, the stencil having at least one protrusion provided on the edge of the stencil or at least one indentation provided on the edge of the stencil, either the protrusion of the stencil being engageable with the indentation of the planar element, or the indentation of the stencil being engageable with the protrusion of the planar element, characterized in that the planar element also comprises a magnetic means which is adapted to attract the stencil and hold it firmly in contact with the planar element, and the stencil is made of a material which is attracted by the magnetic means. the device comprising a substantially planar element having means to engage the at least one stencil, the planar element being provided with at least one indentation or at least one protrusion, the stencil being engageable with the planar element of the device, the stencil having at least one protrusion provided on the edge of the stencil or at least one indentation provided on the edge of the stencil, either the protrusion of the stencil being engageable with the indentation of the planar element, or the indentation of the stencil being engageable with the protrusion of the planar element, characterized in that the planar element also comprises a magnetic means which is adapted to attract the stencil and hold it firmly in contact with the planar element, and the stencil is made of a material which is attracted by the magnetic means.
A collection of armadillo repeat proteins, each armadillo repeat protein comprising at least one repeat domain comprising at least two consecutive repeat modules with the armadillo repeat sequence motif wherein "x" denotes any amino acid, except that amino acid residues C, G and P are not allowed at positions 30, 33, 36, 40 and 41, "a" denotes an amino acid with an apolar side chain, and "p" denotes a residue with a polar side chain, and wherein at least one of said armadillo repeat proteins is able to bind a target peptide or polypeptide.
Tray repository (1, 40, 41) comprising multiple trays for depositing x-ray image plates, characterized in that the tray repository (1, 40, 41) has a registration system (4, 20) that is activated upon depositing an x-ray image plate in one of the trays and/or upon removal of an x-ray image plate from one of the trays and thereby generates an activation signal, wherein a time measurement device is present that, in response to the activation signal, outputs a deposition time point and/or a removal time point for the individual trays as soon as the registration system (4, 20) is activated, wherein, upon triggering of the registration system, the deposition time point and/or the removal time point, as well as a tray identification of the respective tray and/or of a tray repository indications of the respective tray repository, are registered by means of a data storage unit.
A strip connector receiving a body fluid test strip to measure a biologic fluid applied to the test strip, the strip connector comprising: a connector housing having a housing cavity; a strip carrier movably disposed in the housing cavity of the connector housing, the strip carrier including a carrier body having a longitudinal channel configured to slidably receive the body fluid test strip in an insertion direction; a first biasing member positioned between the strip carrier and the connector housing and acting to bias the strip carrier in an ejection direction oppositely directed with respect to the insertion direction; and the strip connector being characterised in that it comprises: a second biasing member positioned between the strip carrier and the connector housing and in a first mode orthogonally acting with respect to the first biasing member to bias the carrier body in a contact direction orthogonally oriented with respect to the ejection direction, the second biasing member being further partially deflectable by motion of the strip carrier in the insertion direction, the second biasing member in a second mode acting to bias the carrier body in the ejection direction together with the first biasing member. a connector housing having a housing cavity; a strip carrier movably disposed in the housing cavity of the connector housing, the strip carrier including a carrier body having a longitudinal channel configured to slidably receive the body fluid test strip in an insertion direction; a first biasing member positioned between the strip carrier and the connector housing and acting to bias the strip carrier in an ejection direction oppositely directed with respect to the insertion direction; and the strip connector being characterised in that it comprises: a second biasing member positioned between the strip carrier and the connector housing and in a first mode orthogonally acting with respect to the first biasing member to bias the carrier body in a contact direction orthogonally oriented with respect to the ejection direction, the second biasing member being further partially deflectable by motion of the strip carrier in the insertion direction, the second biasing member in a second mode acting to bias the carrier body in the ejection direction together with the first biasing member.
A current mode power amplifier (100, 500, 700, 800) comprising: means for steering a single-ended scaled current based on differential voltage inputs; means for mirroring the scaled current to produce a single-ended filtered output current; and means for converting the filtered output current to an output voltage signal for transmission. means for steering a single-ended scaled current based on differential voltage inputs; means for mirroring the scaled current to produce a single-ended filtered output current; and means for converting the filtered output current to an output voltage signal for transmission.
A method for producing a stainless steel component containing the steps of; - providing a stainless steel powder having the following composition by weight; Cr 15-30 weight% Ni 5-25 weight% Si 0.5-3.5 weight% Mn 0-2 weight% S 0-0.6 weight% C 0.001-0.8 weight% N ≤03 weight% O ≤0.5 weight% optionally up to 3 weight% of each of the elements Mo, Cu, Nb, V, Ti and inevitable impurities up to 1 weight%, Fe balance, - agglomerating the stainless steel powder or transforming the stainless steel powder, optionally mixed with lubricants, hard-phase materials, machinability enhancing agents and graphite, into a suitable paste or feedstock, - optionally mixing the agglomerated stainless steel powder with lubricants, hard-phase materials, machinability enhancing agents and graphite, - consolidating the obtained paste, feedstock or granulated powder into a green component, - heating the obtained green component in vacuum or in an atmosphere of hydrogen gas to a temperature of at least 1100°C. - sintering the green component at a temperature between 1150-1350°C in an atmosphere of at least 20% nitrogen gas. - cooling the sintered component at a cooling rate of at most 30C/min from the sintering temperature to a temperature of ≥1100°C in an atmosphere of at least 20% nitrogen gas to form sufficient amount of M2(C, N) carbonitrides, - cooling the sintered component from 1100°C to ambient temperature at a cooling rate of at least 30 C/min and sufficiently high enough to avoid excessive formation of M(C,N) carbo nitrides yielding a component having at least 12% by weight of Cr in the matrix. - providing a stainless steel powder having the following composition by weight; Cr 15-30 weight% Ni 5-25 weight% Si 0.5-3.5 weight% Mn 0-2 weight% S 0-0.6 weight% C 0.001-0.8 weight% N ≤03 weight% O ≤0.5 weight% optionally up to 3 weight% of each of the elements Mo, Cu, Nb, V, Ti and inevitable impurities up to 1 weight%, Fe balance, - agglomerating the stainless steel powder or transforming the stainless steel powder, optionally mixed with lubricants, hard-phase materials, machinability enhancing agents and graphite, into a suitable paste or feedstock, - optionally mixing the agglomerated stainless steel powder with lubricants, hard-phase materials, machinability enhancing agents and graphite, - consolidating the obtained paste, feedstock or granulated powder into a green component, - heating the obtained green component in vacuum or in an atmosphere of hydrogen gas to a temperature of at least 1100°C. - sintering the green component at a temperature between 1150-1350°C in an atmosphere of at least 20% nitrogen gas. - cooling the sintered component at a cooling rate of at most 30C/min from the sintering temperature to a temperature of ≥1100°C in an atmosphere of at least 20% nitrogen gas to form sufficient amount of M2(C, N) carbonitrides, - cooling the sintered component from 1100°C to ambient temperature at a cooling rate of at least 30 C/min and sufficiently high enough to avoid excessive formation of M(C,N) carbo nitrides yielding a component having at least 12% by weight of Cr in the matrix.
A detector head assembly of a sensor, the detector head assembly comprising: a detector body comprising an internal channel extending a longitudinal length, the detector body being configured to hold a sensor cartridge that includes a sensing element; a wire comprising a conductor, the wire extending into the internal channel of the detector body such that an end of the conductor is configured to be operatively connected to the sensing element; and a wire seal comprising a generally pliable sealant (16,182) held within the internal channel of the detector body; characterised in that the wire seal further comprises a generally rigid sealant (18,184) held within the internal channel of the detector body, the wire extending through the generally rigid sealant (18,184) such that the generally rigid sealant (18,184) surrounds the wire and extends between the detector body and the wire, the generally rigid sealant (18,184) comprising a first rigid sealant segment and a second rigid sealant segment, the generally pliable sealant (16,182) being sandwiched between the first and second rigid sealant segments (204, 206) along the longitudinal length of the internal channel, wherein the generally pliable sealant (16,182) is configured to be longitudinally compressed between the first and second rigid sealant segments (204,206) along the longitudinal length of the internal channel during assembly of the detector head assembly such that the generally pliable sealant (16,182) moves into and fills one or more voids between the wire and the detector body for sealing the wire to the detector body. a detector body comprising an internal channel extending a longitudinal length, the detector body being configured to hold a sensor cartridge that includes a sensing element; a wire comprising a conductor, the wire extending into the internal channel of the detector body such that an end of the conductor is configured to be operatively connected to the sensing element; and a wire seal comprising a generally pliable sealant (16,182) held within the internal channel of the detector body; characterised in that the wire seal further comprises a generally rigid sealant (18,184) held within the internal channel of the detector body, the wire extending through the generally rigid sealant (18,184) such that the generally rigid sealant (18,184) surrounds the wire and extends between the detector body and the wire, the generally rigid sealant (18,184) comprising a first rigid sealant segment and a second rigid sealant segment, the generally pliable sealant (16,182) being sandwiched between the first and second rigid sealant segments (204, 206) along the longitudinal length of the internal channel, wherein the generally pliable sealant (16,182) is configured to be longitudinally compressed between the first and second rigid sealant segments (204,206) along the longitudinal length of the internal channel during assembly of the detector head assembly such that the generally pliable sealant (16,182) moves into and fills one or more voids between the wire and the detector body for sealing the wire to the detector body.
Material comprising dendritic molecules whose backbones have at least two branchings, wherein each molecule is constituted of fragments that are at least bifunctional obtained from compounds containing two functions, identical or different, selected from epoxy, alcohol and amine functions, and of fragments that are at least trifunctional, obtained from compounds containing three functions, identical or different, selected from acid, ester or acyl chloride functions, such that fragments and fragments are joined together by ester bridges, alone or in combination with amide bridges, said bridges being formed by reacting one function from compound with one function from compound, said molecules containing moreover, on the fragments located at the ends of the dendritic branches, associative end groups capable of forming associations with one another by hydrogen bonds, wherein said associative end groups are connected to the trifunctional fragments, via a direct bond or via a chain, by reacting the functions that are not involved in said ester or amide bridges with compounds that comprise one reactive group selected from primary or secondary amine or alcohol and one associative end group selected from the imidazolidonyl, triazolyl, triazinyl, bis-ureyl, and ureido-pyrimidyl groups; wherein the average number of associative end groups per molecule of the material is at least 3 and at most 6.
A tire inflation system for a steer-axle wheel end assembly having a tire mounted to a steer-axle spindle pivotably connected to a steer axle, the steer-axle spindle having an inner face facing the steer axle and having an outer end, the steer-axle spindle having an axial channel formed therein and disposed at least partially along the central axis of the steer-axle spindle, the axial channel extending to the outer end for sealed fluid communication with a pressurized fluid supply, a rotary union mounted to the steer-axle wheel end assembly and being in sealed fluid communication with the axial channel and with the tire, the rotary union characterized by: a tee body; a first annular seal circumferentially disposed in a groove circumferentially formed in the wall of the axial channel; and a tubular member sealingly disposed between the tee body and the first annular seal, the first annular seal forming a sealing interface between the tubular member and the wall of the steer axle spindle. a tee body; a first annular seal circumferentially disposed in a groove circumferentially formed in the wall of the axial channel; and a tubular member sealingly disposed between the tee body and the first annular seal, the first annular seal forming a sealing interface between the tubular member and the wall of the steer axle spindle.
A method of wireless communication, comprising: wirelessly transmitting a reservation signal intended for a plurality of receivers (R1, R2, R3) for scheduling a broadcast/multicast data transmission; monitoring for a confirmation signal from at least one of the plurality of receivers (R1, R2, R3), wherein the confirmation signals are received, relative to each other, on a same tone-symbol of a resource block or on different tone-symbols across different symbols of a resource block; determining a number of received confirmation signals from the at least one of the plurality of receivers (R1, R2, R3); wirelessly transmitting the broadcast/multicast data transmission to the plurality of receivers (R1, R2, R3) if the confirmation signal is received and the number of received confirmation signals is above a threshold; and suppressing transmission of the broadcast/multicast data when the number of received confirmation signals is below the threshold. wirelessly transmitting a reservation signal intended for a plurality of receivers (R1, R2, R3) for scheduling a broadcast/multicast data transmission; monitoring for a confirmation signal from at least one of the plurality of receivers (R1, R2, R3), wherein the confirmation signals are received, relative to each other, on a same tone-symbol of a resource block or on different tone-symbols across different symbols of a resource block; determining a number of received confirmation signals from the at least one of the plurality of receivers (R1, R2, R3); wirelessly transmitting the broadcast/multicast data transmission to the plurality of receivers (R1, R2, R3) if the confirmation signal is received and the number of received confirmation signals is above a threshold; and suppressing transmission of the broadcast/multicast data when the number of received confirmation signals is below the threshold.
Cable retention device provided with two elements, a retention element for an optical drop and a housing element, wherein the housing element is a first elongated body provided with a channel on one of the faces of the first elongated body, where that said channel extends along the first elongated body and is provided with a locking system formed by grooved faces configured to retain the optical drop, locking the optical drop; and wherein the retention element is a second elongated body of cross-section substantially in the shape of a "C", with an inner shoulder of cross-section complementary to that of the first elongated body of the housing element except for the fact that the inner shoulder is spaced from the channel upon insertion of the first elongated body of the housing element into the retention element, such that when in use, the optical drop is pressed between the grooved faces of the channel and the inner shoulder, and is anchored to the cable retention device by the pressure applied along and around the entire outer surface of the optical drop in order to retain the optical drop; and wherein said retention element comprises a shoulder extending from its upper face, characterised in that said retention element further comprises a housing extending from the shoulder, the housing being provided with an opening, said housing element further comprises a cable extending from one end of the first elongated body, and at the distal end of the cable there is an enlargement, in the form of a diametrical widening of the cable, suitable for coupling to the housing through the opening of the retention element. wherein the housing element is a first elongated body provided with a channel on one of the faces of the first elongated body, where that said channel extends along the first elongated body and is provided with a locking system formed by grooved faces configured to retain the optical drop, locking the optical drop; and wherein the retention element is a second elongated body of cross-section substantially in the shape of a "C", with an inner shoulder of cross-section complementary to that of the first elongated body of the housing element except for the fact that the inner shoulder is spaced from the channel upon insertion of the first elongated body of the housing element into the retention element, such that when in use, the optical drop is pressed between the grooved faces of the channel and the inner shoulder, and is anchored to the cable retention device by the pressure applied along and around the entire outer surface of the optical drop in order to retain the optical drop; and wherein said retention element comprises a shoulder extending from its upper face, characterised in that said retention element further comprises a housing extending from the shoulder, the housing being provided with an opening, said housing element further comprises a cable extending from one end of the first elongated body, and at the distal end of the cable there is an enlargement, in the form of a diametrical widening of the cable, suitable for coupling to the housing through the opening of the retention element.
An induction heat generation roller device, comprising: a roller main body adapted to be rotatably supported; an induction heat generator provided within the roller main body and having an induction coil for heating the roller main body inductively; a cooling mechanism configured to introduce a coolant mist into a clearance portion between the roller main body and the induction heat generator for cooling the roller main body; an AC voltage application part configured to apply an AC voltage to the induction coil characterized by a DC voltage application part configured to apply a DC voltage to the induction coil. a roller main body adapted to be rotatably supported; an induction heat generator provided within the roller main body and having an induction coil for heating the roller main body inductively; a cooling mechanism configured to introduce a coolant mist into a clearance portion between the roller main body and the induction heat generator for cooling the roller main body; an AC voltage application part configured to apply an AC voltage to the induction coil characterized by a DC voltage application part configured to apply a DC voltage to the induction coil.
A composite comprising: a bottom layer comprising expanded thermoplastic polyurethane particles; and a surface layer on the bottom layer, wherein the composite has a force reduction of more than 40% measured according to EN 14808:2005, wherein the expanded thermoplastic polyurethane particles are dispersed into a matrix of EPDM in the bottom layer of the composite; and wherein the surface layer comprises compact elastomers, wherein the compact elastomers are selected from the group consisting of mixtures of ethylene propylene diene monomer (EPDM) rubber and polyurethane. a bottom layer comprising expanded thermoplastic polyurethane particles; and a surface layer on the bottom layer, wherein the composite has a force reduction of more than 40% measured according to EN 14808:2005, wherein the expanded thermoplastic polyurethane particles are dispersed into a matrix of EPDM in the bottom layer of the composite; and wherein the surface layer comprises compact elastomers, wherein the compact elastomers are selected from the group consisting of mixtures of ethylene propylene diene monomer (EPDM) rubber and polyurethane.
An LED module comprising: a submount having a face in a thickness direction of the submount; an LED chip bonded to the face with a first bond; and a patterned wiring circuit electrically connected to the LED chip, the first bond allowing light emitted from the LED chip to pass therethrough, the submount being a light-transmissive member having light diffusing properties and having a planar size larger than a planar size of the LED chip, the patterned wiring circuit being provided on the face of the submount so as not to overlap the LED chip, and the submount being constituted by a plurality of light-transmissive layers (4a, 4b) which are stacked in the thickness direction and have different optical properties so that a light-transmissive layer of the plurality of light-transmissive layers which is farther from the LED chip is higher in reflectance in a wavelength range of the light emitted from the LED chip. a submount having a face in a thickness direction of the submount; an LED chip bonded to the face with a first bond; and a patterned wiring circuit electrically connected to the LED chip, the first bond allowing light emitted from the LED chip to pass therethrough, the submount being a light-transmissive member having light diffusing properties and having a planar size larger than a planar size of the LED chip, the patterned wiring circuit being provided on the face of the submount so as not to overlap the LED chip, and the submount being constituted by a plurality of light-transmissive layers (4a, 4b) which are stacked in the thickness direction and have different optical properties so that a light-transmissive layer of the plurality of light-transmissive layers which is farther from the LED chip is higher in reflectance in a wavelength range of the light emitted from the LED chip.