mhurhangee/ep-ind-claims huggingface dataset:
Multi-core temperature probe comprising five temperature-dependent resistors (A, B, C, D; E), wherein - in each case, two resistors (A, B; C, D, E) are connected in series and the centre taps of the two series connections are connected to one another via a fifth resistor, - each end of each series connection is contactable via a terminal to a measuring electronics system, - by means of electronic switches (S1-S6), the five resistors (A, B, C, D, E) are connectable via the terminals to the measuring electronics system, and - on the basis of different measurements, by means of the measuring electronics system, the resistance values of the resistors (A, B; C, D, E) are determinable. - in each case, two resistors (A, B; C, D, E) are connected in series and the centre taps of the two series connections are connected to one another via a fifth resistor, - each end of each series connection is contactable via a terminal to a measuring electronics system, - by means of electronic switches (S1-S6), the five resistors (A, B, C, D, E) are connectable via the terminals to the measuring electronics system, and - on the basis of different measurements, by means of the measuring electronics system, the resistance values of the resistors (A, B; C, D, E) are determinable.
A detergent composition comprising a detersive surfactant and a graft polymer comprising: 50 to 80% of a polymer backbone as a graft base, which is obtainable by polymerization of ethylene oxide, wherein the molecular weight of the polymer backbone Mn in g/mol is within 500 to 1800, and 20 to 50%, of polymeric sidechains grafted onto the polymer backbone, wherein said polymeric sidechains are obtainable by polymerization of at least one vinyl ester monomer, and optionally at least one other monomer, wherein - if present - the weight ratio of monomer to monomer is less than 0.5, preferably less than 0.4, more preferably less than 0.3, even more preferably less than 0.2, and most preferably less than 0.1 (with all percentages as weight percent in relation to the total weight of the graft polymer), wherein the product of formula P = [molecular weight of the polymer backbone Mn in g/mol] x [percentage of amount of polymeric sidechains based on total polymer weight, with polymer weight being set to "1" and the percentage of amount of as fraction thereof] is in the range 50 to not more than 600. 50 to 80% of a polymer backbone as a graft base, which is obtainable by polymerization of ethylene oxide, wherein the molecular weight of the polymer backbone Mn in g/mol is within 500 to 1800, and which is obtainable by polymerization of ethylene oxide, wherein the molecular weight of the polymer backbone Mn in g/mol is within 500 to 1800, 20 to 50%, of polymeric sidechains grafted onto the polymer backbone, wherein said polymeric sidechains are obtainable by polymerization of at least one vinyl ester monomer, and optionally at least one other monomer, wherein - if present - the weight ratio of monomer to monomer is less than 0.5, preferably less than 0.4, more preferably less than 0.3, even more preferably less than 0.2, and most preferably less than 0.1 (with all percentages as weight percent in relation to the total weight of the graft polymer), wherein the product of formula P = [molecular weight of the polymer backbone Mn in g/mol] x [percentage of amount of polymeric sidechains based on total polymer weight, with polymer weight being set to "1" and the percentage of amount of as fraction thereof] is in the range 50 to not more than 600.
A semiconductor device, comprising: - a semiconductor layer of a first conductivity type; - an electrode formed on a main surface of the semiconductor layer which functions as a Schottky electrode; - a guard ring layer of a second conductivity type formed from a part of the main surface of the semiconductor layer directly below an end portion of the electrode and an end perimeter portion of the end portion toward an inside of the semiconductor layer so as to surround the electrode, said end perimeter portion being the part of the main surface immediately beyond the end portion of the electrode; - at least one groove formed from a part of the main surface of the semiconductor layer located outside the end portion of the electrode toward the inside of the semiconductor layer so as to surround the guard ring layer apart from the guard ring layer; - at least one JTE layer of the second conductivity type formed from a bottom of the at least one groove toward the inside of the semiconductor layer so as to surround the guard ring layer and be apart from the guard ring layer; and - an insulating film formed on the main surface of the semiconductor layer so as to cover a surface of the guard ring layer and a surface of the at least one JTE layer; characterised in that a first part of the insulating film extends to the inside of the al least one groove; the end portion of the electrode and the end perimeter portion are disposed in a guard ring groove (9a1) in which the guard ring layer is formed directly therebelow, and a second part of the insulating film extends to the inside of the guard ring groove (9a1) to entirely cover the end perimeter portion; and the thickness of the first part of the insulating film and the thickness of the second part of the insulating film are larger than the thickness of the part of the insulating film formed on the main surface where the at least one groove and the guard ring groove (9a1) are not formed. - a semiconductor layer of a first conductivity type; - an electrode formed on a main surface of the semiconductor layer which functions as a Schottky electrode; - a guard ring layer of a second conductivity type formed from a part of the main surface of the semiconductor layer directly below an end portion of the electrode and an end perimeter portion of the end portion toward an inside of the semiconductor layer so as to surround the electrode, said end perimeter portion being the part of the main surface immediately beyond the end portion of the electrode; - at least one groove formed from a part of the main surface of the semiconductor layer located outside the end portion of the electrode toward the inside of the semiconductor layer so as to surround the guard ring layer apart from the guard ring layer; - at least one JTE layer of the second conductivity type formed from a bottom of the at least one groove toward the inside of the semiconductor layer so as to surround the guard ring layer and be apart from the guard ring layer; and - an insulating film formed on the main surface of the semiconductor layer so as to cover a surface of the guard ring layer and a surface of the at least one JTE layer;
A method of processing a television channel change request, in a television signal receiver, comprising: receiving a first digit of a television channel of a user request to change a television channel; and providing, in response to receipt of said first digit, an on-screen display showing the first entered television channel digit, in a tuner channel section of the on-screen display if the first digit pertains to a tuner of a television signal receiver or in an auxiliary tuning device section of the on-screen display if the first digit pertains to a tuner (25, 31) of an auxiliary tuning device (24, 30) connected to the television signal receiver for selecting the tuning device section (52, 54) by the user; and wherein providing the on-screen display comprises showing a toggle button for changing the auxiliary tuning device (25, 31) shown in the auxiliary tuning device section if there are additional auxiliary tuning devices (25, 31) by the user. receiving a first digit of a television channel of a user request to change a television channel; and providing, in response to receipt of said first digit, an on-screen display showing the first entered television channel digit, in a tuner channel section of the on-screen display if the first digit pertains to a tuner of a television signal receiver or in an auxiliary tuning device section of the on-screen display if the first digit pertains to a tuner (25, 31) of an auxiliary tuning device (24, 30) connected to the television signal receiver for selecting the tuning device section (52, 54) by the user; and wherein providing the on-screen display comprises showing a toggle button for changing the auxiliary tuning device (25, 31) shown in the auxiliary tuning device section if there are additional auxiliary tuning devices (25, 31) by the user.
A multi-antenna terminal, comprising: a Printed Circuit Board, PCB, a first antenna and a second antenna, wherein the first antenna and the second antenna are respectively connected to a ground of the PCB; further comprising at least one inductance element, a first split-ring resonator group and a second split-ring resonator group, wherein the first split-ring resonator group and the second split-ring resonator group are arranged between the first antenna and the second antenna, the first split-ring resonator group and the second split-ring resonator group are arranged in parallel, and respectively connected to a ground of the PCB, one end of the inductance element is connected to the first split-ring resonator group, and the other end of the inductance element is connected to the second split-ring resonator group; wherein the first split-ring resonator group comprises a first plurality of single split-ring resonators which are connected in series, and the second split-ring resonator group comprises a second plurality of single split-ring resonators which are connected in series; wherein each single split-ring resonator comprises a plurality of microstrip lines forming a rectangular frame, and one side of each rectangular frame is provided with a recess, and a gap is formed in a bottom of the recess.
An aluminum-silicon-magnesium alloy, including: - a magnesium content between 0.1 wt % and 0.5 wt %,; - a silicon content between 5.0 wt % and 6.0 wt %, - wherein at least 4.75 wt % of the silicon content is present as free silicon; - one or more of iron, copper, manganese, zinc, and titanium; and - a remainder of aluminum and trace components, characterized in that all of the magnesium content is present as magnesium silicide, and that less than 0.25 wt % of the silicon content is present as magnesium silicide, the remainder of the silicon content being present as free silicon in form of silicon in solid solution, pure silicon precipitates or silicon present within a distinct silicon phase of the composition, wherein the alloy comprises magnesium silicide in a weight percentage less than 0,75%. - a magnesium content between 0.1 wt % and 0.5 wt %,; - a silicon content between 5.0 wt % and 6.0 wt %, - wherein at least 4.75 wt % of the silicon content is present as free silicon; - one or more of iron, copper, manganese, zinc, and titanium; and - a remainder of aluminum and trace components, characterized in that all of the magnesium content is present as magnesium silicide, and that less than 0.25 wt % of the silicon content is present as magnesium silicide, the remainder of the silicon content being present as free silicon in form of silicon in solid solution, pure silicon precipitates or silicon present within a distinct silicon phase of the composition, wherein the alloy comprises magnesium silicide in a weight percentage less than 0,75%.
An integrated process for making an inflatable article, comprising the steps of: extruding a first flat film (12,56) and a second flat film (13,58); cooling the first flat film (12,56) and the second flat film (13,58) so that the first and second flat films will not fuse to one another upon contact with each other by contacting one or more of the first and second flat films with one or more chilled rolls; contacting the first flat film with the second flat film; and heating selected portions of at least one of the first and second flat films to a temperature above a fusion temperature, so that the first and second flat films are heat sealed to one another at a selected area, with the selected area providing a heat seal pattern which provides inflatable chambers which are connected together by connecting channels between the first flat film and the second flat film, the heating being performed by passing the first and second flat films together through a nip between a first roll and a second roll, with at least one of the rolls having a patterned raised surface and at least one of the rolls being heated. extruding a first flat film (12,56) and a second flat film (13,58); cooling the first flat film (12,56) and the second flat film (13,58) so that the first and second flat films will not fuse to one another upon contact with each other by contacting one or more of the first and second flat films with one or more chilled rolls; contacting the first flat film with the second flat film; and heating selected portions of at least one of the first and second flat films to a temperature above a fusion temperature, so that the first and second flat films are heat sealed to one another at a selected area, with the selected area providing a heat seal pattern which provides inflatable chambers which are connected together by connecting channels between the first flat film and the second flat film, the heating being performed by passing the first and second flat films together through a nip between a first roll and a second roll, with at least one of the rolls having a patterned raised surface and at least one of the rolls being heated.
A developing device comprising: a housing configured to accommodate developer therein; a developing roller rotatably provided to the housing and configured to carry the developer on a surface thereof; a layer thickness regulation blade contacting the developing roller; and a seal member arranged between the housing and each end of the developing roller in an axial direction of the developing roller, wherein the seal member includes a contact member configured to contact the developing roller and an elastic member arranged between the contact member and the housing and wherein the elastic member has a first protrusion protruding further toward an inner side in the axial direction than the contact member, wherein the layer thickness regulation blade includes a blade main body extending along the axial direction, and a blade rubber part protruding from a surface of the blade main body, which faces the developing roller, and contacting the developing roller, wherein an end surface of the blade rubber part in the axial direction is in contact with an inner end surface of the contact member in the axial direction, characterized in that the first protrusion is provided at a corner part between the blade rubber part and the contact member to function as a suppression part configured to suppress a strength of flow of the developer, and wherein the elastic member has a second protrusion arranged at an upstream side of the first protrusion in the rotating direction of the developing roller and protruding further toward the inner side in the axial direction than the first protrusion. a housing configured to accommodate developer therein; a developing roller rotatably provided to the housing and configured to carry the developer on a surface thereof; a layer thickness regulation blade contacting the developing roller; and a seal member arranged between the housing and each end of the developing roller in an axial direction of the developing roller, wherein the seal member includes a contact member configured to contact the developing roller and an elastic member arranged between the contact member and the housing and wherein the elastic member has a first protrusion protruding further toward an inner side in the axial direction than the contact member, wherein the layer thickness regulation blade includes a blade main body extending along the axial direction, and a blade rubber part protruding from a surface of the blade main body, which faces the developing roller, and contacting the developing roller, wherein an end surface of the blade rubber part in the axial direction is in contact with an inner end surface of the contact member in the axial direction, characterized in that the first protrusion is provided at a corner part between the blade rubber part and the contact member to function as a suppression part configured to suppress a strength of flow of the developer, and wherein the elastic member has a second protrusion arranged at an upstream side of the first protrusion in the rotating direction of the developing roller and protruding further toward the inner side in the axial direction than the first protrusion.
An injection molding system comprising: a hot runner manifold having a manifold melt channel for receiving a melt stream of moldable material from a melt source; a hot runner nozzle having a nozzle melt channel for receiving the melt stream from the manifold melt channel and delivering the melt stream to a mold cavity via a mold gate; and a valve pin having a shaft that extends from an actuation mechanism through at least a portion of the manifold melt channel and the nozzle melt channel such that a forward end of the valve pin is seatable within the mold gate, the valve pin shaft having a rearward segment disposed between the manifold melt channel and the actuation mechanism; characterized in that the actuation mechanism is configured to accommodate shifting between the manifold and the actuation mechanism that occurs under operating conditions, wherein the valve pin includes a rearward section and a forward section with a slidable interface therebetween, the slidable interface being disposed within the rearward segment of the valve pin shaft and formed between corresponding opposed faces (654a,658a) of the rearward section and forward section of the valve pin, such that lateral displacement of the rearward section relative to the forward section of the valve pin occurs along the slidable interface, to accommodate shifting between the manifold and the actuation mechanism under operating conditions. a hot runner manifold having a manifold melt channel for receiving a melt stream of moldable material from a melt source; a hot runner nozzle having a nozzle melt channel for receiving the melt stream from the manifold melt channel and delivering the melt stream to a mold cavity via a mold gate; and a valve pin having a shaft that extends from an actuation mechanism through at least a portion of the manifold melt channel and the nozzle melt channel such that a forward end of the valve pin is seatable within the mold gate, the valve pin shaft having a rearward segment disposed between the manifold melt channel and the actuation mechanism; characterized in that the actuation mechanism is configured to accommodate shifting between the manifold and the actuation mechanism that occurs under operating conditions, wherein the valve pin includes a rearward section and a forward section with a slidable interface therebetween, the slidable interface being disposed within the rearward segment of the valve pin shaft and formed between corresponding opposed faces (654a,658a) of the rearward section and forward section of the valve pin, such that lateral displacement of the rearward section relative to the forward section of the valve pin occurs along the slidable interface, to accommodate shifting between the manifold and the actuation mechanism under operating conditions.
An optical filter for anti-reflection comprising: a first retardation film having an in-plane optical axis and having quarter-wave phase retardation characteristics; a second retardation film having an optical axis constantly tilted along the thickness direction; and a polarizer having an absorption axis formed in one direction, wherein the first retardation film, the second retardation film and the polarizer are disposed sequentially, wherein the optical axis of the first retardation film forms an angle of 40 degrees to 50 degrees with the absorption axis of the polarizer, wherein the projection of the optical axis of the second retardation film onto the plane forms an angle of o degrees or more and less than 4 degrees with the absorption axis of the polarizer. a first retardation film having an in-plane optical axis and having quarter-wave phase retardation characteristics; a second retardation film having an optical axis constantly tilted along the thickness direction; and a polarizer having an absorption axis formed in one direction, wherein the first retardation film, the second retardation film and the polarizer are disposed sequentially, wherein the optical axis of the first retardation film forms an angle of 40 degrees to 50 degrees with the absorption axis of the polarizer, wherein the projection of the optical axis of the second retardation film onto the plane forms an angle of o degrees or more and less than 4 degrees with the absorption axis of the polarizer.
A wire harness, comprising: a tube body having a tubular shape, a protection layer laminated on an inner circumferential surface of the tube body, and an electric wire accommodated in the tube body, wherein the tube body has at least a bellows-shaped region having projections and recesses axially alternately continuous, includes two ends (22a, 22b) circumferentially formed, and is circumferentially closed by the two ends (22a, 22b) facing or overlapping each other, and the protection layer is laminated in at least end regions (23a, 23b) corresponding to the two ends (22a, 22b), respectively, of the inner circumferential surface, and has a hardness lower than a hardness of the tube body, characterized in that the hardness of the protection layer is not higher than a hardness of an outermost layer of the electric wire accommodated in the tube body. a tube body having a tubular shape, a protection layer laminated on an inner circumferential surface of the tube body, and an electric wire accommodated in the tube body, wherein the tube body has at least a bellows-shaped region having projections and recesses axially alternately continuous, includes two ends (22a, 22b) circumferentially formed, and is circumferentially closed by the two ends (22a, 22b) facing or overlapping each other, and the protection layer is laminated in at least end regions (23a, 23b) corresponding to the two ends (22a, 22b), respectively, of the inner circumferential surface, and has a hardness lower than a hardness of the tube body, characterized in that the hardness of the protection layer is not higher than a hardness of an outermost layer of the electric wire accommodated in the tube body.
A treatment device for an endoscope including a pair of forceps pieces which has forceps surfaces adapted to be brought in contact with a subject tissue (Ts) and adapted to be opened and closed with the forceps surfaces facing each other, wherein: concave portions are formed in the central portions of the forceps surfaces to form the forceps surfaces around the concave portions, in the forceps surfaces, a first region on the proximal end side has a plurality of first teeth with flat top surfaces, and a second region, having a semicircular shape and provided on the distal end side to the first region, has a plurality of second teeth, and characterised in that top surfaces of the second teeth are formed to be sharper than the top surfaces of the first teeth, and in that the forceps surface at a distal end side of the second region is thinner than the forceps surface at a proximal end side of the second region. concave portions are formed in the central portions of the forceps surfaces to form the forceps surfaces around the concave portions, in the forceps surfaces, a first region on the proximal end side has a plurality of first teeth with flat top surfaces, and a second region, having a semicircular shape and provided on the distal end side to the first region, has a plurality of second teeth, and characterised in that top surfaces of the second teeth are formed to be sharper than the top surfaces of the first teeth, and in that the forceps surface at a distal end side of the second region is thinner than the forceps surface at a proximal end side of the second region.