mhurhangee/ep-ind-claims huggingface dataset:
An intramedullary nail for insertion into a tubular bone, comprising a shaft with a longitudinal axis, the shaft comprising at least one through-opening for inserting at least one locking device into an interior of the intramedullary nail and/or for passing through the intramedullary nail; the intramedullary nail comprising at least one receiving device for receiving at least a portion of the locking device; wherein the at least one receiving device is a sleeve in the form of a roller having a roller axis perpendicular to a longitudinal axis of the shaft of the intramedullary nail, or is a spherical sleeve or a sleeve of elliptical or elliptoid diameter; wherein the at least one receiving device is movably or alignably arranged within the shaft or the through opening in at least one of its spatial axes in respect to the longitudinal axis of the shaft, the movement being a movement relative to the longitudinal axis of the shaft; wherein the intramedullary nail comprises at least one device for preventing the alignment of the at least one receiving device in respect to the longitudinal axis and/or in respect to a transverse axis perpendicular thereto; and wherein the at least one receiving device comprises an opening or a bore for receiving the at least one locking device; characterized in that the at least one receiving device comprises at least one guide wire opening extending through it for receiving a guide wire, and in that the at least one guide wire opening passes through the opening or the bore of the at least one receiving device for receiving at least one locking device in some of its portions, but not in other portions of the guide wire opening.
A catalyst for homopolymerizing and copolymerizing propylene, wherein the catalyst consists of titanium compound containing at least one Ti-halogen bond and two kinds of electron donor compounds A and B supported on MgCl 2 ·nROH adduct, wherein n is 1.5-4, R is C 1 -C 4 alkyl; the electron donor compound A is a sulphonyl compound having formula, wherein, X is C(R 3)(R 4); wherein R 3 and R 4 are identical or different, and R 3, R 4, is hydrogen atom, halogen, unsubstituted or substituted alkyl, cycloalkyl, aryl, aralkyl, alkylaryl, alkyl alkenyl, alkenyl alkyl, alkyl alkynyl, heteroatom-containing ring or acyl, respectively, or R 3, R 4 and C constitute cycloalkyl or cycloalkenyl in the sulphonyl compound of formula; R 1 and R 2 can be the same or different, and can be hydrogen atom, halogen, unsubstituted or substituted alkyl, cycloalkyl, aryl, aralkyl, alkylaryl or heteroatom-containing ring, respectively; the electron donor compound B can be esters or ethers compound; the molar ratio of electron donor compound A to electron donor compound B can be 0.1-5; and the molar ratio of the total amounts of the two kinds of electron donors to MgCl 2 ·nROH can be 0.01-1 based on the amount of MgCl 2 ·nROH; and the molar ratio of the titanium compound containing Ti-halogen bond to MgCl 2 ·nROH is 1-200; wherein the sulphonyl compound is selected from the group consisting of: di(trifluoromethylsulphonyl)methane; dichloro-di-trifluoromethylsulphonyl-methane; dibromo-di-trifluoromethylsulphonyl-methane; chloro-bromo-di-trifluoromethylsulphonyl-methane; trifluoro-[methoxyl-(trifluoromethylsulphonyl)-methylsulphonyl]-methane; difluoro-di-trifluoromethylsulphonyl-methane; trifluoro-[methoxyl-(trifluoromethylsulphonyl)-methylsulfonyl]-methane; [(dimethyl-λ 4 -sulfonamidesalkenyl)-trifluoromethylsulphonyl-methylsulfonyl]-trifluoromethane; and fluoro-tri-trifluoromethylsulphonyl-methane. di(trifluoromethylsulphonyl)methane; dichloro-di-trifluoromethylsulphonyl-methane; dibromo-di-trifluoromethylsulphonyl-methane; chloro-bromo-di-trifluoromethylsulphonyl-methane; trifluoro-[methoxyl-(trifluoromethylsulphonyl)-methylsulphonyl]-methane; difluoro-di-trifluoromethylsulphonyl-methane; trifluoro-[methoxyl-(trifluoromethylsulphonyl)-methylsulfonyl]-methane; [(dimethyl-λ 4 -sulfonamidesalkenyl)-trifluoromethylsulphonyl-methylsulfonyl]-trifluoromethane; and fluoro-tri-trifluoromethylsulphonyl-methane.
A method of detecting a presence of an object (10, 11, 12, 20), the method comprising: transmitting commissioning radar signals throughout an area using a radar transceiver of a radar system; mapping a commissioning image of the area using the commissioning radar signals; transmitting current radar signals throughout the area using the radar transceiver; mapping a current image of the area using the current radar signals; detecting a difference between the current image and the commissioning image; identifying an object (10, 11, 12, 20) as the difference between the current image and the commissioning image; and determining an identity of the object (10, 11, 12, 20); characterised in that the commissioning and current radar signals are frequency-modulated continuous wave radar signals, and the radar system is a frequency-modulated continuous wave radar system; and in that determining an identity of the object (10, 11, 12, 20) comprises identifying whether the object is an animate object or an inanimate object; wherein identifying whether the object (10, 11, 12, 20) is an animate object or an inanimate object comprises determining whether the object is breathing; and wherein determining whether the object is breathing comprises detecting movements of the object using the current frequency-modulated continuous wave radar signals; determining the movements are periodic having a first frequency; and determining the first frequency is within a range of respiratory rates. transmitting commissioning radar signals throughout an area using a radar transceiver of a radar system; mapping a commissioning image of the area using the commissioning radar signals; transmitting current radar signals throughout the area using the radar transceiver; mapping a current image of the area using the current radar signals; detecting a difference between the current image and the commissioning image; identifying an object (10, 11, 12, 20) as the difference between the current image and the commissioning image; and determining an identity of the object (10, 11, 12, 20); characterised in that the commissioning and current radar signals are frequency-modulated continuous wave radar signals, and the radar system is a frequency-modulated continuous wave radar system; and in that determining an identity of the object (10, 11, 12, 20) comprises identifying whether the object is an animate object or an inanimate object; wherein identifying whether the object (10, 11, 12, 20) is an animate object or an inanimate object comprises determining whether the object is breathing; and wherein determining whether the object is breathing comprises detecting movements of the object using the current frequency-modulated continuous wave radar signals; determining the movements are periodic having a first frequency; and determining the first frequency is within a range of respiratory rates.
A method performed by a service entity for a service supporting service capabilities through a set of application programming interfaces, APIs, in a network, the method comprising: receiving, from an application entity via the network, a request to perform a data analytics operation on data, the request identifying a type of data analytics capability (2004, 2006, 2008) capable of performing the requested data analytics operation, the request further comprising one or more parameters required by the identified type of data analytics capability, the required parameters being specified in a profile defined for the identified type of data analytics capability; forwarding the received request to another service entity for the service in the network having a closer proximity to the data on which the requested data analytics operation is to be performed; receiving, from the another service entity, a response to the requested data analytics operation on the data. receiving, from an application entity via the network, a request to perform a data analytics operation on data, the request identifying a type of data analytics capability (2004, 2006, 2008) capable of performing the requested data analytics operation, the request further comprising one or more parameters required by the identified type of data analytics capability, the required parameters being specified in a profile defined for the identified type of data analytics capability; forwarding the received request to another service entity for the service in the network having a closer proximity to the data on which the requested data analytics operation is to be performed; receiving, from the another service entity, a response to the requested data analytics operation on the data.
A semiconductor device, comprising: a semiconductor substrate; a temperature sensing unit provided on a front surface of the semiconductor substrate; an anode pad and a cathode pad electrically connected to the temperature sensing unit; a front surface electrode being set to a predetermined reference potential; and a bidirectional diode unit electrically connected in a serial way between the cathode pad and the front surface electrode; a transistor section electrically connected to the front surface electrode; and a gate runner being provided on a front surface of the semiconductor substrate and electrically connected to a gate electrode of the transistor section, wherein the bidirectional diode unit comprises a first diode portion and a second diode portion connected in series, wherein an anode of the first diode portion is connected to an anode of the second diode portion, or a cathode of the first diode portion is connected to a cathode of the second diode portion, the bidirectional diode unit is arranged in a region between the anode pad and the cathode pad on the front surface; wherein the front surface electrode includes a main metal portion provided on the front surface, and a connector for connecting the main metal portion and the bidirectional diode unit, wherein the connector crosses over the gate runner. a semiconductor substrate; a temperature sensing unit provided on a front surface of the semiconductor substrate; an anode pad and a cathode pad electrically connected to the temperature sensing unit; a front surface electrode being set to a predetermined reference potential; and a bidirectional diode unit electrically connected in a serial way between the cathode pad and the front surface electrode; a transistor section electrically connected to the front surface electrode; and a gate runner being provided on a front surface of the semiconductor substrate and electrically connected to a gate electrode of the transistor section, wherein the bidirectional diode unit comprises a first diode portion and a second diode portion connected in series, wherein an anode of the first diode portion is connected to an anode of the second diode portion, or a cathode of the first diode portion is connected to a cathode of the second diode portion, the bidirectional diode unit is arranged in a region between the anode pad and the cathode pad on the front surface; wherein the front surface electrode includes a main metal portion provided on the front surface, and a connector for connecting the main metal portion and the bidirectional diode unit, a main metal portion provided on the front surface, and a connector for connecting the main metal portion and the bidirectional diode unit, wherein the connector crosses over the gate runner.
A supporting and stable positioning system suitable for a shelf of a piece of furniture, wherein said piece of furniture comprises a pair of shoulders positioned on a floor and between which shelves are arranged, each shoulder providing a series of spaced overlapping holes, and wherein said system comprises a bush and a shelf support, said bush being suitable to be inserted in each hole, said bush being suitable for receiving a pin which extends from said shelf support, wherein said pin of said shelf support is rotatable within said bush so as to allow said shelf support to be positioned in a housing formed in said shelf in a surface thereof facing said floor, and said bush is expandable and provided with a movable stopper facing a shelf or towards an opposite shoulder characterized in that said movable stopper is pushed to align with a surface of said shoulder in which said hole is formed by means of a spring arranged in said bush.
An assembly (10, 110, 210) for holding a passenger in a transport vehicle, said assembly comprising a support (14, 114, 214, 414) and a gripping device (12, 112, 212); the support being adapted to be fixedly installed within the vehicle; the gripping device being adapted to be carried by a passenger; the gripping device extending along a first direction and comprising a gripping member (16, 116, 216) and a first connecting member (18, 118, 218), integral with each other and adjacent along said first direction; the support comprising a second connecting member (26, 126, 226); the gripping member being configured to be gripped by a passenger, the first connecting member being adapted to be removably connected to the second connecting member of the carrier; the assembly being characterised in that one (26, 118, 218) of the first and second connecting elements comprises an aperture (32, 132, 232) defined by an edge (34, 134, 234); and the other (18, 126, 226) of the first and second connecting elements comprises a protruding member (36, 136, 236) adapted to reversibly connect with said aperture and abut against said edge. the gripping device extending along a first direction and comprising a gripping member (16, 116, 216) and a first connecting member (18, 118, 218), integral with each other and adjacent along said first direction; the support comprising a second connecting member (26, 126, 226); the gripping member being configured to be gripped by a passenger, the first connecting member being adapted to be removably connected to the second connecting member of the carrier; the assembly being characterised in that one (26, 118, 218) of the first and second connecting elements comprises an aperture (32, 132, 232) defined by an edge (34, 134, 234); and the other (18, 126, 226) of the first and second connecting elements comprises a protruding member (36, 136, 236) adapted to reversibly connect with said aperture and abut against said edge.
A toilet seat, comprising a hinged joint between a lid and the toilet seat, means for generating a torque housed in the hinged joint, the means for generating torque being a torsion spring or a leaf spring,, the means for generating the torque having a first end secured or housed in a first bushing or cylindrical casing within in the hinged joint and a second end secured or housed in a second bushing or cylindrical casing within the hinged joint, the first bushing and the second bushing rotating independently from each other, and the first bushing or cylindrical casing and the second bushing or cylindrical casing having means for securing the respective first bushings or cylindrical casing and the second bushing or cylindrical casing to complimentary housings formed on the lid and on the toilet seat wherein said means for generating the torque are such that the torque generated by separating the seat from the lid is greater than the torque generated in the hinge joining the lid and the seat due to the action of gravity such that the toilet seat tilts when lifting the lid.
A method of making an insulating glass unit, the method comprising: providing a first glass substrate; disposing a plurality of layers, directly or indirectly, on a first major surface of the first glass substrate, the plurality of layers including, in order moving away from the first glass substrate: a first layer comprising silicon oxynitride having an index of refraction of 1.5-2.1, a layer comprising ITO having an index of refraction of 1.7-2.1, and a second layer comprising silicon oxynitride having an index of refraction of 1.5-2.1; heat treating the first glass substrate with the plurality of layers disposed thereon; providing a second glass substrate in substantially parallel, spaced apart relation to the first glass substrate such that the first major surface of the first glass substrate faces away from the second glass substrate; and sealing together the first and second glass substrates. providing a first glass substrate; disposing a plurality of layers, directly or indirectly, on a first major surface of the first glass substrate, the plurality of layers including, in order moving away from the first glass substrate: a first layer comprising silicon oxynitride having an index of refraction of 1.5-2.1, a layer comprising ITO having an index of refraction of 1.7-2.1, and a second layer comprising silicon oxynitride having an index of refraction of 1.5-2.1; heat treating the first glass substrate with the plurality of layers disposed thereon; a first layer comprising silicon oxynitride having an index of refraction of 1.5-2.1, a layer comprising ITO having an index of refraction of 1.7-2.1, and a second layer comprising silicon oxynitride having an index of refraction of 1.5-2.1; heat treating the first glass substrate with the plurality of layers disposed thereon; providing a second glass substrate in substantially parallel, spaced apart relation to the first glass substrate such that the first major surface of the first glass substrate faces away from the second glass substrate; and sealing together the first and second glass substrates.
An overvoltage protection circuit having a control unit for use as a second switch in a method for separating an electrical connection of an overvoltage protection element, interposed between two connection points (16, 18), from one of these connection points, having a first feed path that electrically connects a connector of the overvoltage protection element to the one of the connection points, wherein arranged in the first feed path is a first opening switch that is opened triggered by a change in pressure and/or a change in pressure of the overvoltage protection element, wherein when the first switch opens the flowing current is switched to a second feed path that is switched parallel to the first feed path, wherein in the second feed path the second opening switch is arranged for reliably separating follow-on current, and wherein the opening of the second switch occurs at a time delay relative to opening of the first switch, characterized in that the control unit is embodied as a trailing contact and has a device for constricting the electric arc, wherein the device for constricting the electric arc has at least one wire and three insulating plates (64, 66, 68), wherein the three plates (64, 66, 68) are arranged extended essentially parallel to one another, wherein the wire of the second switch - runs, with a first segment, between the first outer plate and the center plate, - furthermore traverses, with a second segment, a connecting end face of the center plate and in the second segment is guided on a first fixing point of the first outer plate and on a second fixing point of the second outer plate, and, - then, with a third segment, runs essentially parallel to the first segment between the second outer plate and the center plate. - runs, with a first segment, between the first outer plate and the center plate, - furthermore traverses, with a second segment, a connecting end face of the center plate and in the second segment is guided on a first fixing point of the first outer plate and on a second fixing point of the second outer plate, and, - then, with a third segment, runs essentially parallel to the first segment between the second outer plate and the center plate.
An adaptive multifunctional chuck, wherein comprises a base, a housing, a bracket; the upper surface of the base is provided in fixed connection to the housing, a bracket and a protective housing, and the protective housing is provided with a switch; the top of the housing is provided with an outlet opened to the atmosphere, and the top plate insides the housing is provided with a display screen, a single-chip microcomputer (100 and a data storage device; the base is further provided with a first seating groove, a second seating groove, and a third seating groove on the upper surface, wherein the first seating groove is provided with a powertrain, the second seating groove is provided with a battery, and the third seating groove is provided with a valve; the base is provided with three via holes through the body, wherein a pressure sensor, check valve and valve are respectively provided in the three via holes through the sealing structure; the lower surface of the base is opened with an inner annular groove which is provided with a sealing ring; the single-chip microcomputer is electrically connected to the display screen, the data storage device, the powertrain, the battery, and the pressure sensor, respectively. the base is further provided with a first seating groove, a second seating groove, and a third seating groove on the upper surface, wherein the first seating groove is provided with a powertrain, the second seating groove is provided with a battery, and the third seating groove is provided with a valve; the base is provided with three via holes through the body, wherein a pressure sensor, check valve and valve are respectively provided in the three via holes through the sealing structure; the lower surface of the base is opened with an inner annular groove which is provided with a sealing ring; the single-chip microcomputer is electrically connected to the display screen, the data storage device, the powertrain, the battery, and the pressure sensor, respectively.
An optical device comprising: • at least one light source intended to radiate a light beam in an essentially vertical downward direction (+Y); • a lens that in turn comprises: ∘ a first refractive surface through which the light beam is refracted; and ∘ a second refractive surface through which the light beam refracts; wherein the first refractive surface is arranged between the at least one light source and the second refractive surface; and • a shielding device defining therein an interior space; wherein the first refractive surface and the second refractive surface are essentially parabolic; wherein the first refractive surface and the second refractive surface are arranged such that the vertices of said parabolic surfaces are the furthermost points between each of them and the at least one light source in the essentially vertical downward direction (+Y); and wherein the second refractive surface is confined in the interior space defined by the shielding device; characterised in that the vertex of the first refractive surface is arranged at the same height as an upper end of the second refractive surface in the essentially vertical downward direction (+Y). • at least one light source intended to radiate a light beam in an essentially vertical downward direction (+Y); • a lens that in turn comprises: ∘ a first refractive surface through which the light beam is refracted; and ∘ a second refractive surface through which the light beam refracts; ∘ a first refractive surface through which the light beam is refracted; and ∘ a second refractive surface through which the light beam refracts; • a shielding device defining therein an interior space; wherein the first refractive surface and the second refractive surface are essentially parabolic; wherein the first refractive surface and the second refractive surface are arranged such that the vertices of said parabolic surfaces are the furthermost points between each of them and the at least one light source in the essentially vertical downward direction (+Y); and wherein the second refractive surface is confined in the interior space defined by the shielding device; characterised in that the vertex of the first refractive surface is arranged at the same height as an upper end of the second refractive surface in the essentially vertical downward direction (+Y).