mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic relay, comprising: an iron core having legs (31, 32) at both ends and a coil wound therearound to form an electromagnet; a movable iron piece that pivotally supports a pivoting shaft along one leg of the iron core and causes a tip of a pivoting arm extended from a side edge of the pivoting shaft toward the other leg of the iron core to face the other leg of the iron core in a contactable and separable manner; and a card whose side facing the movable iron piece is in contact with the pivoting arm of the movable iron piece, wherein the movable iron piece pivots based on the excitation and degaussing of the electromagnet pressing the card, thereby driving a contact mechanism, characterized in that a facing plane of the iron core, the facing plane facing the pivoting shaft of the iron piece, has means for reducing magnetic flux density provided on one leg of the iron core, wherein the means for reducing magnetic flux density is at least one of a groove, a protrusion, or a nonmagnetic body. an iron core having legs (31, 32) at both ends and a coil wound therearound to form an electromagnet; a movable iron piece that pivotally supports a pivoting shaft along one leg of the iron core and causes a tip of a pivoting arm extended from a side edge of the pivoting shaft toward the other leg of the iron core to face the other leg of the iron core in a contactable and separable manner; and a card whose side facing the movable iron piece is in contact with the pivoting arm of the movable iron piece, wherein the movable iron piece pivots based on the excitation and degaussing of the electromagnet pressing the card, thereby driving a contact mechanism,
A method for determining a location of a defect in an electrical line of an electronic system, the method comprising: (i) setting a value of a first threshold and a value of a second threshold; (ii) with a control circuit, outputting a first signal transition onto the electrical line; (iii) with the control circuit, receiving a second signal transition arising in response to a reflection of the first signal transition from the defect; (iv) determining an occurrence of a first event based on the first signal transition crossing a first threshold; (v) determining an occurrence of a second event based on the second signal transition crossing the second threshold; (vi) varying the value of the first threshold and/or the value of the second threshold; (vii) repeating (ii)-(vi) N times, where N>0; (viii) computing a first representative measurement value based on at least some of the occurrences of the first events and computing a second representative measurement value based on at least some of the occurrences of the second events; and (ix) determining the location of the defect based on the first representative measurement value and the second representative measurement value. (i) setting a value of a first threshold and a value of a second threshold; (ii) with a control circuit, outputting a first signal transition onto the electrical line; (iii) with the control circuit, receiving a second signal transition arising in response to a reflection of the first signal transition from the defect; (iv) determining an occurrence of a first event based on the first signal transition crossing a first threshold; (v) determining an occurrence of a second event based on the second signal transition crossing the second threshold; (vi) varying the value of the first threshold and/or the value of the second threshold; (vii) repeating (ii)-(vi) N times, where N>0; (viii) computing a first representative measurement value based on at least some of the occurrences of the first events and computing a second representative measurement value based on at least some of the occurrences of the second events; and (ix) determining the location of the defect based on the first representative measurement value and the second representative measurement value.
A method for producing a steel component which has a tensile strength Rm of greater than 1200 MPa and an elongation at break A50 of greater than 6%, comprising the following production steps: - providing a flat steel product having the following composition (in wt%): C: 0.10 - 0.60%, Si: 0.4 - 2.5%, Al: up to 3.0%, Mn: 0.4 - 3.0%, Ni: up to 1%, Cu: up to 2.0%, Mo: up to 0.4%, Cr: up to 2%, Co: up to 1.5%, Ti: up to 0.2%, Nb: up to 0.2%, V: up to 0.5%, the remainder iron and unavoidable impurities, wherein the structure of the flat steel product is composed of at least 10 vol% residual austenite which comprises globular residual austenite islands with a grain size of at least 1 μm, - heating the flat steel product to a forming temperature, which is 150 - 400 °C, - forming the flat steel product heated to the forming temperature into the component with a degree of forming which does not exceed the uniform elongation Ag, - cooling the formed flat steel product. - providing a flat steel product having the following composition (in wt%): C: 0.10 - 0.60%, Si: 0.4 - 2.5%, Al: up to 3.0%, Mn: 0.4 - 3.0%, Ni: up to 1%, Cu: up to 2.0%, Mo: up to 0.4%, Cr: up to 2%, Co: up to 1.5%, Ti: up to 0.2%, Nb: up to 0.2%, V: up to 0.5%, the remainder iron and unavoidable impurities, wherein the structure of the flat steel product is composed of at least 10 vol% residual austenite which comprises globular residual austenite islands with a grain size of at least 1 μm, - heating the flat steel product to a forming temperature, which is 150 - 400 °C, - forming the flat steel product heated to the forming temperature into the component with a degree of forming which does not exceed the uniform elongation Ag, - cooling the formed flat steel product.
A speed sensor (1;21;31;41;51;61;71) comprising a first part and a second part arranged concentrically around or within it, which parts are axially movable relative to each other, one of the parts being static and the other part being dynamic and one of the parts comprising a measuring coil (15;47;57) for measuring the speed at which the two parts are displaced relative to each other and the first part comprising a first magnet array and the second part a second magnet array, which magnet arrays exert a magnetic force on each other, the two magnet arrays are such that the weight of the dynamic part is opposite in direction and equal in size to the magnetic force experienced by this part from the static part which is concentric with respect to this part, the first magnet array comprises at least one permanent magnet (7;7A-B;43A-C;53A-D) and the second magnet array at least one further permanent magnet (9,11;45A-C;55A-D), characterized in that the polarization of the at least one permanent magnet being in essence opposite to that of the at least one further permanent magnet or in essence perpendicular to it.
A sunscreen composition for broad spectrum protection against solar radiation, comprising 1-25 percent of a non-nano zinc oxide by weight, and 0.2-1.8 percent of bis-ethylhexyloxyphenol methoxyphenyl triazine (BEMT) by weight, wherein the non-nano zinc oxide has a median primary particle size of 100 nm or higher; wherein a synergistic effect is obtained in UV protection characterized in that the SPF value of the composition is at least 25 and the PFA value of the composition is at least 15.
Method for securing a data exchange between a first and a second participant via a decentralized network with a multitude of participants in the event of reception, wherein securing is carried out using individual low-level certificates and higher-level authorization certificates (AAC B), comprising: receiving a message [with PSC B] from the second participant together with the individual certificate (PSC B) of the second participant, based on which the second participant is identifiable and based on which identification information (ID B) of the second participant is obtained; determining the identification information (ID B) of the second participant based on the message [with PSC B]); and transmitting to the multitude of participants a message [with request (AAC B) + ID B]) including a request of the first participant with respect to the authorization certificate of the second participant, wherein the identification information of the second participant are transmitted together with the request in order to directly address the second participant; characterized in that the method further includes the step of buffering the received individual low-level certificate of the second participant even if the received individual certificate is not authenticated, and authenticating the received individual certificate after reception of the authorization certificate of the second participant by the first participant. receiving a message [with PSC B] from the second participant together with the individual certificate (PSC B) of the second participant, based on which the second participant is identifiable and based on which identification information (ID B) of the second participant is obtained; determining the identification information (ID B) of the second participant based on the message [with PSC B]); and transmitting to the multitude of participants a message [with request (AAC B) + ID B]) including a request of the first participant with respect to the authorization certificate of the second participant, wherein the identification information of the second participant are transmitted together with the request in order to directly address the second participant; characterized in that the method further includes the step of buffering the received individual low-level certificate of the second participant even if the received individual certificate is not authenticated, and authenticating the received individual certificate after reception of the authorization certificate of the second participant by the first participant.
A composition comprising a calcium phosphate based powder component and a bisphosphonate in particulate form, the composition forming a calcium phosphate based bone filler when mixed with a liquid component, and in which the particles of the bisphosphonate are embedded in particles of a polymeric material which resorbs when the bone filler is implanted.
A coated abrasive article comprising: a plurality of formed ceramic abrasive particles each having a surface feature; the plurality of formed ceramic abrasive particles attached to a flexible backing by a make coat comprising a resinous adhesive forming an abrasive layer; the surface feature having a z-direction rotational orientation, wherein the z- direction rotational orientation refers to the particle's angular rotation about a z- axis passing through the particle and through the backing at a 90 degree angle to the backing; wherein a specified z-direction rotational orientation occurs more frequently in the abrasive layer than would occur by a random z-direction rotational orientation of the surface feature; wherein the coated abrasive article comprises a sheet or a belt; characterised in that: the surface feature comprises a substantially planar surface; and a pattern created by the plurality of formed ceramic abrasive particles comprises a plurality of parallel lines or a plurality of orthogonal lines. a plurality of formed ceramic abrasive particles each having a surface feature; the plurality of formed ceramic abrasive particles attached to a flexible backing by a make coat comprising a resinous adhesive forming an abrasive layer; the surface feature having a z-direction rotational orientation, wherein the z- direction rotational orientation refers to the particle's angular rotation about a z- axis passing through the particle and through the backing at a 90 degree angle to the backing; wherein a specified z-direction rotational orientation occurs more frequently in the abrasive layer than would occur by a random z-direction rotational orientation of the surface feature; wherein the coated abrasive article comprises a sheet or a belt; characterised in that: the surface feature comprises a substantially planar surface; and a pattern created by the plurality of formed ceramic abrasive particles comprises a plurality of parallel lines or a plurality of orthogonal lines. the surface feature comprises a substantially planar surface; and a pattern created by the plurality of formed ceramic abrasive particles comprises a plurality of parallel lines or a plurality of orthogonal lines.
A metallic modular retaining device for roadways, comprising a set of modules elongated along a longitudinal axis and intended to be installed on the roadway and connected to each other at the ends (2, 3) thereof, each of the modules including two end walls (112, 113) longitudinally spaced apart within the module, a lower face of the module, an upper face of the module and two opposite lateral walls of the module, the lateral walls being each consisted of two guard rails (6, 7), a lower one and an upper one, one above the other between the lower face and the upper face of the module, each guard rail (6, 7) having the shape of a profile of W-shaped wavy cross-section with two lateral tops separated from each other by a central valley, the two end walls (112, 113) of a module being substantially planar, parallel to each other, vertical and perpendicular to a longitudinal vertical median plane of the module, each module including internally at least three crossbars, including two end crossbars and one central crossbar arranged substantially at equal distance from the two end walls, the rails being fixed to the crossbars, each crossbar (12, 13, 14, 15) being consisted of a vertical transverse wall (112, 113, 18) and of planar peripheral edges of determined width, the peripheral edges being two lateral peripheral edges, an upper peripheral edge and a lower peripheral edge, the peripheral edges being in planes perpendicular to the plane of the transverse wall of the crossbar and extended along the corresponding upper, lower and lateral peripheral edges of the crossbars, the rails (6, 7) being fixed on the lateral peripheral edges of the crossbar, the transversal wall of an end crossbar (12, 13) forming the corresponding end wall (112, 113) of the module, characterized in that, in an installed state of the device, the modules are each fixed on the roadway by a pole provided with an enlarged head, the pole being driven vertically into the roadway by passing through the central crossbar, the upper peripheral edge of the central crossbar including an upper passage orifice for the passage of the pole and the lower peripheral edge of the central crossbar including a lower passage orifice for the passage of the pole, the enlarged head being unable to pass through the upper passage orifice, the lower passage orifice allowing a greater clearance with the pole than the clearance of the upper passage orifice in order to allow a displacement of the lower part of the module on the roadway in case of lateral shock on said module when the pole is driven in the roadway.
A method for fitting a roof covering in sections, wherein the roof covering comprises a membrane, wherein the membrane comprises bitumen and a metal, the method comprising the following steps: (a) fitting the roof covering in sections, wherein one or more seams and/or overlapping regions are formed between the sections of roof covering; (b) heating the metal in the one or more seams and/or overlapping regions by means of magnetic induction; and (c) melting the bitumen in the one or more seams and/or overlapping regions together by heating the metal in step (b); wherein step (b) is carried out by moving a generator comprising an induction coil over the one or more seams and/or overlapping regions at a certain speed, and wherein the speed is regulated based on a measurement of: - the power provided to said one or more seams and/or overlapping regions via said induction coil; or - the temperature of the seams and/or overlapping regions; or - a combination thereof; wherein the membrane comprises the following layers: (i) a top coating, comprising bitumen and/or modified bitumen on top of; (ii) a reinforcing layer on top of; (iii) a complete or partial metal layer on top of; (iv) a bottom coating, comprising bitumen and/or modified bitumen; wherein the top coating and bottom coating have different compositions. (a) fitting the roof covering in sections, wherein one or more seams and/or overlapping regions are formed between the sections of roof covering; (b) heating the metal in the one or more seams and/or overlapping regions by means of magnetic induction; and (c) melting the bitumen in the one or more seams and/or overlapping regions together by heating the metal in step (b); - the power provided to said one or more seams and/or overlapping regions via said induction coil; or - the temperature of the seams and/or overlapping regions; or - a combination thereof; (i) a top coating, comprising bitumen and/or modified bitumen on top of; (ii) a reinforcing layer on top of; (iii) a complete or partial metal layer on top of; (iv) a bottom coating, comprising bitumen and/or modified bitumen;
A process for the dehydrogenation of at least one dehydrogenatable hydrocarbon, the process comprising contacting a feed comprising the at least one dehydrogenatable hydrocarbon under dehydrogenation conditions with a catalyst composition comprising a support and a dehydrogenation component wherein said conditions include a temperature of from 400°C to 750°C and a pressure of at least 50 psig (345 kPag), wherein the at least one dehydrogenatable hydrocarbon is cyclohexanone.
A fastener comprising a polymer composition [composition, herein after] comprising (i) at least one polyaryletherketone polymer [(PAEK) polymer], (ii) at least one nitride of an element having an electronegativity (ε) of from 1.3 to 2.5, as defined in « Handbook of Chemistry and Physics », CRC Press, 64 th edition, pages B-65 to B-158, wherein the weight of composition is above 10% of the total weight of the fastener, wherein the at least one nitride is selected from aluminum nitride (A1N, a45, ε=1.5), antimony nitride (SbN, a271, ε=1.9), beryllium nitride (Be 3 N 2, b123, ε=1.5), boron nitride (BN, b203, ε=2.0), chromium nitride (CrN, c406, ε=1.6), copper nitride (Cu 3 N, c615, ε=1.9), gallium nitride (GaN, g41, ε=1.6), trigermanium dinitride (Ge 3 N 2, g82, ε=1.8), trigermanium tetranitride (Ge 3 N 4, g83, ε=1.8), hafnium nitride (HfN, h7, ε=1.3), iron nitrides like Fe 4 N (i151, ε=1.8) and Fe 2 N or Fe 4 N 2 (i152, ε=1.8), mercury nitride (Hg 3 N 2, m221, ε=1.9), niobium nitride (n109, ε=1.6), silicium nitride (Si 3 N 4, s109, ε=1.8), tantalum nitride (TaN, t7, ε=1.5), titanium nitride (Ti 3 N 4, t249, ε=1.5), wolfram dinitride (WN 2, t278, ε=1.7), vanadium nitride (VN, vl5, ε=1.6), zinc nitride (Zn 3 N 2, z50, ε=1.6) and zirconium nitride (ZrN, z105, ε=1.4); wherein the total weight of the (PAEK) polymer, based on the total weight of the composition, is above 60 %. wherein said fastener is selected from the group consisting of bolts, nuts, screws, threaded bushings, prevailing-torque fasteners, pins, retaining rings, rivets, brackets and fastening washers, wherein bolts, nuts, screws, threaded bushings and prevailing-torque fasteners are threaded fasteners and pins, retaining rings, rivets, brackets and fastening washers are unthreaded fasteners. (i) at least one polyaryletherketone polymer [(PAEK) polymer], (ii) at least one nitride of an element having an electronegativity (ε) of from 1.3 to 2.5, as defined in « Handbook of Chemistry and Physics », CRC Press, 64 th edition, pages B-65 to B-158,
An apparatus for delivery of a lens component into an eye, comprising: a nozzle; a bay (42, 42a) adjacent to the nozzle, wherein the bay is configured to contain the lens component and comprises a recess in a shape of a haptic extension (18, 18a, 18b); and a cam-actuated mechanism comprising: a slider (66, 66a) configured to move in a direction toward the nozzle; and a side arm moveably disposed within the bay, wherein the side arm is positioned at an end of the slider, the end of the slider comprising a groove aligned with the side arm, wherein the groove extends from an outer edge of the slider into an interior portion of the slider, and wherein the groove is angled to receive the side arm as the slider moves. a nozzle; a bay (42, 42a) adjacent to the nozzle, wherein the bay is configured to contain the lens component and comprises a recess in a shape of a haptic extension (18, 18a, 18b); and a cam-actuated mechanism comprising: a slider (66, 66a) configured to move in a direction toward the nozzle; and a side arm moveably disposed within the bay, wherein the side arm is positioned at an end of the slider, the end of the slider comprising a groove aligned with the side arm, wherein the groove extends from an outer edge of the slider into an interior portion of the slider, and wherein the groove is angled to receive the side arm as the slider moves. a slider (66, 66a) configured to move in a direction toward the nozzle; and a side arm moveably disposed within the bay, wherein the side arm is positioned at an end of the slider, the end of the slider comprising a groove aligned with the side arm, wherein the groove extends from an outer edge of the slider into an interior portion of the slider, and wherein the groove is angled to receive the side arm as the slider moves.
Warp knitted fabric comprising: a ground structure formed with warps knitted into mesh shapes; and a pattern structure knitted on the ground structure, wherein the ground structure has two or more unit designs (10; 20) continuously arranged in the transverse direction of the ground structure, each of the unit designs (10; 20) comprises two or more unit structures (A1, B1, C1, D1, A2, B2, C2, D2) consecutively arranged in the longitudinal direction, each of the unit structures (A1, B1, C1, D1, A2, B2, C2, D2) is a network structure of a specific mesh shape formable by a chain of a specific chain number group comprising an array of a plurality of chain numbers, and each of the unit structures (A1, B1, C1, D1, A2, B2, C2, D2) has a different mesh shape of the network structure formable by a chain of a different chain number group from one another, respectively, characterized in that the warp knitted fabric comprises areas composed of network structure only which are devoid of pattern structure. a ground structure formed with warps knitted into mesh shapes; and a pattern structure knitted on the ground structure, wherein the ground structure has two or more unit designs (10; 20) continuously arranged in the transverse direction of the ground structure, each of the unit designs (10; 20) comprises two or more unit structures (A1, B1, C1, D1, A2, B2, C2, D2) consecutively arranged in the longitudinal direction, each of the unit structures (A1, B1, C1, D1, A2, B2, C2, D2) is a network structure of a specific mesh shape formable by a chain of a specific chain number group comprising an array of a plurality of chain numbers, and each of the unit structures (A1, B1, C1, D1, A2, B2, C2, D2) has a different mesh shape of the network structure formable by a chain of a different chain number group from one another, respectively, each of the unit structures (A1, B1, C1, D1, A2, B2, C2, D2) is a network structure of a specific mesh shape formable by a chain of a specific chain number group comprising an array of a plurality of chain numbers, and each of the unit structures (A1, B1, C1, D1, A2, B2, C2, D2) has a different mesh shape of the network structure formable by a chain of a different chain number group from one another, respectively, characterized in that the warp knitted fabric comprises areas composed of network structure only which are devoid of pattern structure.