mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal, comprising a support assembly, a display screen, and a moveable seat; wherein, the support assembly comprises a first housing, a second housing, and a bendable member; the bendable member is connected between the first housing and the second housing, the bendable member is capable of being spread or bent so as to spread out or fold the support assembly; the first housing comprises a first inner face, a first outer face and a first peripheral face; the first outer face supports the display screen, the first inner face is disposed opposite to the first outer face, the first peripheral face is connected between the first inner face and the first outer face; characterized in that the first housing is provided with a protrusion, the protrusion protrudes from the first inner face, the first housing defines an accommodation slot therein, the accommodation slot is at least partially defined in the protrusion, and the accommodation slot extends from an inside of the first housing to the first peripheral face; the second housing comprises a second inner face and a second outer face, the second outer face supports the display screen, the second inner face is disposed opposite to the second outer face, the second housing is provided with a concave groove; when the support assembly is folded, the second inner face is disposed opposite to the first inner face, at least a part of the protrusion is accommodated within the concave groove, and a projection of the concave groove on the first inner face covers a projection of the accommodation slot on the first inner face; and a camera is disposed in the moveable seat, the moveable seat is retractably mounted in the accommodation slot, and the moveable seat carrying the camera is configured to be received within the accommodation slot or extended out of the accommodation slot so that an image capturing face of the camera is exposed.
Magnetic field shield for electromagnetic fields, preferably in the frequency range of from 50 Hz to 200 kHz, substantially consisting of a composite metal sheet formed of at least three superimposed layers (1.1, 1.2, 1.3; 1.1, 1.21, 1.22, 1.31, 1.32), at least one of the layers consisting of an electrical metal sheet or an electrical strip, characterised in that at least one of the layers consists of a steel sheet and at least one of the layers consists of a plastics material and/or an elastomer, the at least one layer (1.3; 1.31, 1.32) consisting of a plastics material and/or an elastomer integrally bonding the at least one layer (1.1) consisting of an electrical metal sheet or an electrical strip to the at least one layer (1.2; 1.21, 1.22) consisting of a steel sheet.
A method for sinusoidal nulling, the method comprising: transmitting, by a controller, an excitation signal to a first sensor; determining, by the controller, a target harmonic based at least on one or more characteristics of the excitation signal, wherein the one or more characteristics of the excitation signal comprises a fundamental frequency, and wherein the target harmonic comprises an integer multiple of the fundamental frequency; receiving a return signal from the first sensor; sampling the return signal at a first sample rate based on the target harmonic; and adjusting a phase of a sampling signal of the controller to null the target harmonic amplitude to form an adjusted return signal. transmitting, by a controller, an excitation signal to a first sensor; determining, by the controller, a target harmonic based at least on one or more characteristics of the excitation signal, wherein the one or more characteristics of the excitation signal comprises a fundamental frequency, and wherein the target harmonic comprises an integer multiple of the fundamental frequency; receiving a return signal from the first sensor; sampling the return signal at a first sample rate based on the target harmonic; and adjusting a phase of a sampling signal of the controller to null the target harmonic amplitude to form an adjusted return signal.
An epoxy resin composition, comprising: acid anhydrides; and epoxy resins, wherein: (a) cyclohexane-1,2,4-tricarboxylic acid-1,2-anhydride accounts for 50 to 90 mass% of the acid anhydrides; (b) an alicyclic epoxy resin compound accounts for 30 to 90 mass% of the epoxy resins and an epoxy resin compound represented by the following general formula accounts for 10 to 50 mass% of the epoxy resins; and (c) contents of the acid anhydrides and the epoxy resins are such that a blending equivalent ratio between the acid anhydrides and the epoxy resins represented by the following formula ranges from 0.4 to 0.7: where R's each independently represent a hydrogen atom or a methyl group, m represents an integer of 1 to 3, and n represents an integer of 2 to 8, blending equivalent ratio between acid anhydrides and epoxy resins= (X+Y) /Z where X represents the functional group number of acid anhydride groups in the acid anhydrides, Y represents the functional group number of carboxyl groups in the acid anhydrides, and Z represents the functional group number of epoxy groups in the epoxy resins. acid anhydrides; and epoxy resins, wherein: (a) cyclohexane-1,2,4-tricarboxylic acid-1,2-anhydride accounts for 50 to 90 mass% of the acid anhydrides; (b) an alicyclic epoxy resin compound accounts for 30 to 90 mass% of the epoxy resins and an epoxy resin compound represented by the following general formula accounts for 10 to 50 mass% of the epoxy resins; and (c) contents of the acid anhydrides and the epoxy resins are such that a blending equivalent ratio between the acid anhydrides and the epoxy resins represented by the following formula ranges from 0.4 to 0.7: where R's each independently represent a hydrogen atom or a methyl group, m represents an integer of 1 to 3, and n represents an integer of 2 to 8, blending equivalent ratio between acid anhydrides and epoxy resins= (X+Y) /Z where X represents the functional group number of acid anhydride groups in the acid anhydrides, Y represents the functional group number of carboxyl groups in the acid anhydrides, and Z represents the functional group number of epoxy groups in the epoxy resins. (a) cyclohexane-1,2,4-tricarboxylic acid-1,2-anhydride accounts for 50 to 90 mass% of the acid anhydrides; (b) an alicyclic epoxy resin compound accounts for 30 to 90 mass% of the epoxy resins and an epoxy resin compound represented by the following general formula accounts for 10 to 50 mass% of the epoxy resins; and (c) contents of the acid anhydrides and the epoxy resins are such that a blending equivalent ratio between the acid anhydrides and the epoxy resins represented by the following formula ranges from 0.4 to 0.7: where R's each independently represent a hydrogen atom or a methyl group, m represents an integer of 1 to 3, and n represents an integer of 2 to 8, blending equivalent ratio between acid anhydrides and epoxy resins= (X+Y) /Z where X represents the functional group number of acid anhydride groups in the acid anhydrides, Y represents the functional group number of carboxyl groups in the acid anhydrides, and Z represents the functional group number of epoxy groups in the epoxy resins.
A material composite for detecting free neutrons, comprising - a converter material, which is formed to generate secondary radiation as a result of neutron capture, and - a detector material, which is formed to store information with respect to a quantity of the secondary radiation and to release it again upon later evaluation by means of optically stimulated luminescence, wherein - the converter material and the detector material are each present in a plurality of particles, which are commonly present as a material mixture in the material composite, characterized in that the detector material is formed of beryllium oxide and the converter material is formed of lithium tetraborate. - a converter material, which is formed to generate secondary radiation as a result of neutron capture, and - a detector material, which is formed to store information with respect to a quantity of the secondary radiation and to release it again upon later evaluation by means of optically stimulated luminescence, wherein - the converter material and the detector material are each present in a plurality of particles, which are commonly present as a material mixture in the material composite,
A bonding tool to attach an adhesive element to a bonding part comprising: a loading station module for receiving an unheated bonding part; an oven module for receiving and heating the unheated bonding part; an adhesive picking station module for attachment of the adhesive element to the heated bonding part; a part slide module for selectively and sequentially advancing the bonding part from said loading station module, into and through said oven module, and to said adhesive picking station module; characterized by a bonding tool base to which said loading station module, said oven module, said adhesive picking station module, and said part slide module are fitted, wherein said part slide module includes a guide base attached to said bonding tool base, a guide rail attached to said guide base, and a reciprocating body movably attached to said guide rail, a flap cam control and a flap base, said flap cam control being pivotably mounted on said flap base, a first transfer finger assembly for moving the unheated bare bonding part from said loading station into said oven module and a second transfer finger assembly for moving the heated bare bonding part from said oven module to said adhesive picking station module. a loading station module for receiving an unheated bonding part; an oven module for receiving and heating the unheated bonding part; an adhesive picking station module for attachment of the adhesive element to the heated bonding part; a part slide module for selectively and sequentially advancing the bonding part from said loading station module, into and through said oven module, and to said adhesive picking station module; characterized by a bonding tool base to which said loading station module, said oven module, said adhesive picking station module, and said part slide module are fitted, wherein said part slide module includes a guide base attached to said bonding tool base, a guide rail attached to said guide base, and a reciprocating body movably attached to said guide rail, a flap cam control and a flap base, said flap cam control being pivotably mounted on said flap base, a first transfer finger assembly for moving the unheated bare bonding part from said loading station into said oven module and a second transfer finger assembly for moving the heated bare bonding part from said oven module to said adhesive picking station module.
A system for detecting microorganisms in a sample, comprising: a container comprising an incubation zone containing growth media in which the sample is cultured, and an optical window embedded in a portion of the floor of the container, said optical window being transparent to light and formed with a first surface and a parallel opposing surface, the surfaces being perpendicular to the floor of the container, a matrix located between said opposing surfaces of said optical window, said matrix and optical window defining a detection zone, said matrix composed of a curable polymer which is substantially transparent to light, and at least one indicator reagent sensitive to carbon dioxide gas generated by the microorganisms in the incubation zone, the carbon dioxide gas diffusing into the matrix in the detection zone; a light source external to the container located adjacent to the first surface of the optical window configured to pass light through the optical window and through the matrix; a light sensor external to the container located adjacent to the parallel opposing surface of the optical window, wherein said light generated from the light source passes through the matrix along an optical path from the first surface A through the second surface B and interacts with the indicator reagent to yield interactive light that is indicative of the presence of the microorganisms, said light sensor configured to detect said interactive light. a container comprising an incubation zone containing growth media in which the sample is cultured, and an optical window embedded in a portion of the floor of the container, said optical window being transparent to light and formed with a first surface and a parallel opposing surface, the surfaces being perpendicular to the floor of the container, a matrix located between said opposing surfaces of said optical window, said matrix and optical window defining a detection zone, said matrix composed of a curable polymer which is substantially transparent to light, and at least one indicator reagent sensitive to carbon dioxide gas generated by the microorganisms in the incubation zone, the carbon dioxide gas diffusing into the matrix in the detection zone; a light source external to the container located adjacent to the first surface of the optical window configured to pass light through the optical window and through the matrix; a light sensor external to the container located adjacent to the parallel opposing surface of the optical window, wherein said light generated from the light source passes through the matrix along an optical path from the first surface A through the second surface B and interacts with the indicator reagent to yield interactive light that is indicative of the presence of the microorganisms, said light sensor configured to detect said interactive light.
A microelectronic structure having an indium gallium arsenide active channel, wherein the indium gallium arsenide active channel includes at least one surface (145 1, 145 2) having an indium content higher than the average indium content of the indium gallium arsenide active channel, wherein the indium gallium arsenide active channel comprises a fin having a pair of opposing surface (145 1, 145 2) and wherein each of the surface (145 1, 145 2) has an indium content higher than the average indium content of the indium gallium arsenide active channel.
A silicon-germanium optical sensor (400, 401, 402) comprising: a first graded material layer (411, 421, 431) comprising a composition of at least silicon and germanium, wherein compositions of the germanium of the first graded material layer vary along a particular direction; a second graded material layer (413, 423, 433) comprising a composition of at least the silicon and the germanium, wherein compositions of the germanium of the second graded material layer vary along the particular direction; and a third material layer (415, 425, 435) arranged between the first graded material layer and the second graded material layer, the third material layer comprising at least the germanium, characterised in that the particular direction is a direction from the first graded material layer to the second graded material layer, wherein the compositions of the germanium of the first graded material layer increase along the particular direction, the and wherein the compositions of germanium of the second graded material layer decrease along the particular direction. a first graded material layer (411, 421, 431) comprising a composition of at least silicon and germanium, wherein compositions of the germanium of the first graded material layer vary along a particular direction; a second graded material layer (413, 423, 433) comprising a composition of at least the silicon and the germanium, wherein compositions of the germanium of the second graded material layer vary along the particular direction; and a third material layer (415, 425, 435) arranged between the first graded material layer and the second graded material layer, the third material layer comprising at least the germanium, characterised in that the particular direction is a direction from the first graded material layer to the second graded material layer, wherein the compositions of the germanium of the first graded material layer increase along the particular direction, the and wherein the compositions of germanium of the second graded material layer decrease along the particular direction.
Active element, in particular a decoy active element, comprising at least one active substance (10 1...n), at least two ignition means (20 1...n), each comprising a pyrotechnic composition for igniting the active substances (10 1...n), characterized in that the at least two ignition means (20 1...n) are arranged on the at least one active substance (10 1...n) and the at least two ignition means (20 1...n) are connected to one another via channels (30 1...n, 31 1...n) in such a way that the at least one active substance (10 1...n) can be ignited simultaneously from a plurality of sides. at least one active substance (10 1...n), at least two ignition means (20 1...n), each comprising a pyrotechnic composition for igniting the active substances (10 1...n), characterized in that the at least two ignition means (20 1...n) are arranged on the at least one active substance (10 1...n) and the at least two ignition means (20 1...n) are connected to one another via channels (30 1...n, 31 1...n) in such a way that the at least one active substance (10 1...n) can be ignited simultaneously from a plurality of sides.
Lamella for a frictional shift element, having an annular friction surface which has an inner edge and an outer edge, wherein a peripheral first groove, a plurality of second grooves and a plurality of third grooves are provided in the friction surface, - wherein the first groove extends in a zig-zag or wavy shape between radially inner and radially outer deflection points (41, 42), - wherein the second grooves extend to the radially inner deflection point starting from the inner edge, - wherein the third grooves extend into the peripheral first groove starting from the outer edge in a straight line and open at inlet points into the peripheral first groove, - wherein the third grooves are oriented substantially in the radial direction towards the outer edge starting from the inlet points, - wherein the groove pattern formed by the first, second and third grooves (31, 32, 33) is designed to be symmetrical and is centred on a rotation centre point of the lamella, - wherein the orientation of at least that portion of the second grooves which opens at the radially inner deflection points, and a line between the rotation centre point of the lamella and the deflection point assigned to the respective second groove, encloses an angle between 35 and 75 degrees, characterized in that the inlet points are arranged between the deflection points of the first groove. - wherein the first groove extends in a zig-zag or wavy shape between radially inner and radially outer deflection points (41, 42), - wherein the second grooves extend to the radially inner deflection point starting from the inner edge, - wherein the third grooves extend into the peripheral first groove starting from the outer edge in a straight line and open at inlet points into the peripheral first groove, - wherein the third grooves are oriented substantially in the radial direction towards the outer edge starting from the inlet points, - wherein the groove pattern formed by the first, second and third grooves (31, 32, 33) is designed to be symmetrical and is centred on a rotation centre point of the lamella, - wherein the orientation of at least that portion of the second grooves which opens at the radially inner deflection points, and a line between the rotation centre point of the lamella and the deflection point assigned to the respective second groove, encloses an angle between 35 and 75 degrees,
A cannula-needle comprising: - A needle holder that holds a needle which is designed to be coaxially coupled with a cannula for making an injection into a blood vessel and having a stem having a longitudinal axis, a distal tip and transversal engaging means fitted in the proximity of said tip; - A cannula holder in which said cannula extends from its distal end and that at the opposing proximal end shapes an inner cavity for coupling with said needle holder and having inner walls; - A protective member of said needle tip which can be moved from a deactivated position to an irreversible activated position after the use of the cannula-needle wherein it is placed over the needle tip; said protective member in said deactivated position being retained in a removable way by said walls of said inner cavity of said cannula holder, said protective member comprising a flat body which shapes: - A crosswise proximal wall to said needle wherein a first passage opening for said stem is obtained and having a blocking perimeter of said transversal engaging means; - A first and a second arm (11, 12) which extend from said proximal wall toward said distal tip; At least said first arm shaping a second wall transversally fitted with respect of said needle and wherein a second passage opening of said stem is obtained, said second passage opening in said deactivated position being aligned with said first passage opening and in said activated position being misaligned from said first passage opening, characterized in that said first arm forms two lateral partitions which are folded perpendicular thereto and form with the second wall adjacent thereto, a box-like head having an entirely open side facing the proximal wall - A needle holder that holds a needle which is designed to be coaxially coupled with a cannula for making an injection into a blood vessel and having a stem having a longitudinal axis, a distal tip and transversal engaging means fitted in the proximity of said tip; - A cannula holder in which said cannula extends from its distal end and that at the opposing proximal end shapes an inner cavity for coupling with said needle holder and having inner walls; - A protective member of said needle tip which can be moved from a deactivated position to an irreversible activated position after the use of the cannula-needle wherein it is placed over the needle tip; - A crosswise proximal wall to said needle wherein a first passage opening for said stem is obtained and having a blocking perimeter of said transversal engaging means; - A first and a second arm (11, 12) which extend from said proximal wall toward said distal tip;