mhurhangee/ep-ind-claims huggingface dataset:
A home network topology identification method, wherein the home network (10; 11) has a plurality of network devices (27, 28, 29) with a residential gateway among them, the method comprises the following steps: obtain at least one home network parameter from at least two of the network devices (27, 28, 29); obtain a network channel gain function, CGF, of the home network (10; 11) from one of the network devices (27, 28, 29); transform the network channel gain function, CGF, into the time domain to obtain an equivalent estimated channel delay spread function, CDS; obtain an estimated blind network topology from the estimated channel delay spread function, CDS, and a propagation speed of the network, wherein a blind network topology is a set of information on distances between the network devices (27, 28, 29); and correlate the estimated blind network topology with the at least one home network parameter to obtain at least one structural network topology parameter such as an identified home network branch (12, 13, 14). obtain at least one home network parameter from at least two of the network devices (27, 28, 29); obtain a network channel gain function, CGF, of the home network (10; 11) from one of the network devices (27, 28, 29); transform the network channel gain function, CGF, into the time domain to obtain an equivalent estimated channel delay spread function, CDS; obtain an estimated blind network topology from the estimated channel delay spread function, CDS, and a propagation speed of the network, wherein a blind network topology is a set of information on distances between the network devices (27, 28, 29); and correlate the estimated blind network topology with the at least one home network parameter to obtain at least one structural network topology parameter such as an identified home network branch (12, 13, 14).
An electron beam installation, which is used for selective melting of powdered material to get a stable 3D structure, comprising a) a powder container (18, 19, 20), which can accommodate a powder bed made of the powdered material to be processed, and comprising b) an electron beam generator, which is configured to direct an electron beam onto laterally differing locations of the powder bed, characterized in that c) the electron beam installation has a frit device (34, 35) with at least two electrodes (19, 30, 31), which, by applying an AC voltage between the at least two electrodes (19, 30, 31), generates an electromagnetic alternating field, which bonds the powdered material of the powder bed, at least in regions over the powder bed, wherein d) the power and/or the frequency of the AC voltage of the frit device (34, 35) and the power of the electron beam are selected so that the bonded powdered material is not dispersed during subsequent melting using the electron beam, wherein the powdered material is only bonded by the frit device (34, 35) at locations at which no processing takes place using the electron beam in such a way that the powdered material can be detached again there, in particular by impacts, wherein e) the frequency of the AC voltage of the frit device lies in regions greater than 5 kHz. a) a powder container (18, 19, 20), which can accommodate a powder bed made of the powdered material to be processed, and comprising b) an electron beam generator, which is configured to direct an electron beam onto laterally differing locations of the powder bed, characterized in that c) the electron beam installation has a frit device (34, 35) with at least two electrodes (19, 30, 31), which, by applying an AC voltage between the at least two electrodes (19, 30, 31), generates an electromagnetic alternating field, which bonds the powdered material of the powder bed, at least in regions over the powder bed, wherein d) the power and/or the frequency of the AC voltage of the frit device (34, 35) and the power of the electron beam are selected so that the bonded powdered material is not dispersed during subsequent melting using the electron beam, wherein the powdered material is only bonded by the frit device (34, 35) at locations at which no processing takes place using the electron beam in such a way that the powdered material can be detached again there, in particular by impacts, wherein e) the frequency of the AC voltage of the frit device lies in regions greater than 5 kHz.
A flow sensor system, comprising: a flow sensor assembly comprising: a flow conduit configured to allow fluid flow through the flow conduit; a flow disrupter disposed in said flow conduit to impart disturbances to the fluid flow; a by-pass channel in fluid connection with the flow conduit and wherein the dimensions of the bypass channel relative to the flow conduit and the flow disrupter affect at least some flow characteristics in the bypass channel; at least a first sensor disposed in the by-pass channel and arranged to generate a signal responsive to the flow characteristics in the bypass channel; and a processor coupled to the first sensor to receive the generated signal and determine a flow rate for the fluid flow through the flow conduit, wherein in a first flow regime, the processor determines the flow rate based on a direct current response of the sensor to the flow characteristics in the bypass channel, and wherein in a second flow regime, the processor determines the flow rate based on an alternating current response (Vc) of the sensor to the flow characteristics in the bypass channel. a flow conduit configured to allow fluid flow through the flow conduit; a flow disrupter disposed in said flow conduit to impart disturbances to the fluid flow; a by-pass channel in fluid connection with the flow conduit and wherein the dimensions of the bypass channel relative to the flow conduit and the flow disrupter affect at least some flow characteristics in the bypass channel; at least a first sensor disposed in the by-pass channel and arranged to generate a signal responsive to the flow characteristics in the bypass channel; and a processor coupled to the first sensor to receive the generated signal and determine a flow rate for the fluid flow through the flow conduit, wherein in a first flow regime, the processor determines the flow rate based on a direct current response of the sensor to the flow characteristics in the bypass channel, and wherein in a second flow regime, the processor determines the flow rate based on an alternating current response (Vc) of the sensor to the flow characteristics in the bypass channel.
Mechanical system for tilting a cab relative to a chassis of a vehicle comprising: - a suspension arm wherein the forward end of same is pivotally connected to a chassis to form a tilting pivot, and the rearward end of the suspension arm is rigidly connected to a suspension bracket; - the underside of said suspension bracket is fitted with a bush bracket; - said bush bracket is connected to an upper end of a link arm by a revolute joint allowing only rotational motion; - a lower end of the link arm is connected to a clevis joint as a revolute joint allowing only rotational motion; characterized in that - the clevis joint has a rotational joint which connects it to a screw that meshes with a nut; - said nut having an inner surface with a matching thread and the outer surface is machined as a worm gear; - the outer surface of the nut meshes with a worm which is rigidly connected to one end of a worm shaft; - the other end of the worm shaft is rigidly connected to an engaging clip; - the engaging clip engages a detachable handle. - a suspension arm wherein the forward end of same is pivotally connected to a chassis to form a tilting pivot, and the rearward end of the suspension arm is rigidly connected to a suspension bracket; - the underside of said suspension bracket is fitted with a bush bracket; - said bush bracket is connected to an upper end of a link arm by a revolute joint allowing only rotational motion; - a lower end of the link arm is connected to a clevis joint as a revolute joint allowing only rotational motion; characterized in that - the clevis joint has a rotational joint which connects it to a screw that meshes with a nut; - said nut having an inner surface with a matching thread and the outer surface is machined as a worm gear; - the outer surface of the nut meshes with a worm which is rigidly connected to one end of a worm shaft; - the other end of the worm shaft is rigidly connected to an engaging clip; - the engaging clip engages a detachable handle.
A semiconductor device comprising: a semiconductor substrate having a memory cell area and a logic circuit area; an STI isolation region being made of an isolation trench formed in said semiconductor substrate and an insulating film burying said isolation trench and defining a plurality of active regions in said memory cell area and said logic circuit area; a first structure formed on an area from the active region in said memory cell area to a nearby STI isolation region and having a first height; a second structure formed on an area from the active region in said logic circuit area to a nearby STI isolation region and having a second height; and gate insulating films having different thicknesses and formed on the surfaces of said plurality of active regions, wherein a flat portion of a surface of said STI isolation region in said memory cell area, the area of which flat portion is larger than an area of any other portion of the surface of said STI isolation region in said memory cell area, is lower than a flat portion of a surface of said STI isolation region in said logic circuit area, the area of which flat portion is larger than an area of any other portion of the surface of said STI isolation region in said logic circuit area, and characterized in that a difference of height between the surface of said STI isolation region and a surface of the active region in said memory cell area is small; excepting a concave portion formed in said STI isolation region at a border of each of said plurality of active regions. a semiconductor substrate having a memory cell area and a logic circuit area; an STI isolation region being made of an isolation trench formed in said semiconductor substrate and an insulating film burying said isolation trench and defining a plurality of active regions in said memory cell area and said logic circuit area; a first structure formed on an area from the active region in said memory cell area to a nearby STI isolation region and having a first height; a second structure formed on an area from the active region in said logic circuit area to a nearby STI isolation region and having a second height; and gate insulating films having different thicknesses and formed on the surfaces of said plurality of active regions, wherein a flat portion of a surface of said STI isolation region in said memory cell area, the area of which flat portion is larger than an area of any other portion of the surface of said STI isolation region in said memory cell area, is lower than a flat portion of a surface of said STI isolation region in said logic circuit area, the area of which flat portion is larger than an area of any other portion of the surface of said STI isolation region in said logic circuit area, and characterized in that a difference of height between the surface of said STI isolation region and a surface of the active region in said memory cell area is small; excepting a concave portion formed in said STI isolation region at a border of each of said plurality of active regions.
Functional unit for a battery-operated hand-guided working implement, - with an operating switch for starting the working implement, - wherein the operating switch is designed for actuation by an actuating element (8, 9), - and with a control unit for operating the working implement, - wherein the control unit comprises a printed circuit board with electronic components, - and the printed circuit board has a first circuit board side facing the control unit and a second circuit board side averted from the first circuit board side, characterised in that - the operating switch is located on the second circuit board side, - the operating switch is statically supported by a supporting device independent of the printed circuit board, - wherein the supporting device extends through a through-opening of the printed circuit board without any mechanical connection to the printed circuit board and extends from the second circuit board side to the first circuit board side. - with an operating switch for starting the working implement, - wherein the operating switch is designed for actuation by an actuating element (8, 9), - and with a control unit for operating the working implement, - wherein the control unit comprises a printed circuit board with electronic components, - and the printed circuit board has a first circuit board side facing the control unit and a second circuit board side averted from the first circuit board side, - the operating switch is located on the second circuit board side, - the operating switch is statically supported by a supporting device independent of the printed circuit board, - wherein the supporting device extends through a through-opening of the printed circuit board without any mechanical connection to the printed circuit board and extends from the second circuit board side to the first circuit board side.
A film antenna comprising: a base film formed of an insulating material; first and second antenna elements of film-like electric conductors formed on the base film, the first and second antenna element each having a feed point; and a core wire of a coaxial cable connected to the first antenna element at the feed point, and an external conductor of the coaxial cable connected to the second antenna element at the feed point, wherein each of the first and second antenna elements is a planar shape containing a plurality of straight lines, characterized in that the planar shape of the first antenna element is a parallelogram and the planar shape of the second antenna element is a trapezoid, the planar shape of each of the first and second antenna elements is configured so that a line, among the plurality of straight lines, extending from the feed point, and a diagonal line extending from the feed point to a vertex of the planar shape, so as to section the planar shape in a first (21 a, 22a) and a second (12b, 22b) portion, the first portion being delimited by at least the line and the diagonal line and defining the resonance frequencies of the antenna elements, have two different lengths, and the first and second antenna elements have an area, corresponding to the second portion, as a capacitor for performing impedance matching. a base film formed of an insulating material; first and second antenna elements of film-like electric conductors formed on the base film, the first and second antenna element each having a feed point; and a core wire of a coaxial cable connected to the first antenna element at the feed point, and an external conductor of the coaxial cable connected to the second antenna element at the feed point, wherein each of the first and second antenna elements is a planar shape containing a plurality of straight lines, characterized in that the planar shape of the first antenna element is a parallelogram and the planar shape of the second antenna element is a trapezoid, the planar shape of each of the first and second antenna elements is configured so that a line, among the plurality of straight lines, extending from the feed point, and a diagonal line extending from the feed point to a vertex of the planar shape, so as to section the planar shape in a first (21 a, 22a) and a second (12b, 22b) portion, the first portion being delimited by at least the line and the diagonal line and defining the resonance frequencies of the antenna elements, have two different lengths, and the first and second antenna elements have an area, corresponding to the second portion, as a capacitor for performing impedance matching.
A multibeam source for a multibeam antenna, the source including a plurality of identical elementary sources such that: - the elementary sources (S1, S11-S16) are associated in identical sub-networks around a central elementary source (S1-S7), each sub-network being intended to form a beam; and that - two adjacent sub-networks include at least one elementary source in common; the source comprising - a supply and polarization stage to power-supply and polarize the electromagnetic field at the accesses of the central elementary sources (S1-S7); and - a stage for distributing the power derived from the central elementary sources to the elementary sources of the corresponding sub-network and those shared by several sub-networks according to a determined amplitude law; wherein the distribution stage is composed of a plurality of parallel waveguides (1, 11-16) oriented along a radiation axis of said source, each waveguide (1, 11-16) corresponding to each elementary source and are arranged relative to each other such that, for a sub-network, a central waveguide corresponds to the central elementary source and peripheral waveguides are radially connected to the central waveguide and such that the waveguides corresponding to the elementary sources shared by several sub-networks are connected together; and wherein the waveguides are connected by means of coupling slots disposed radially around the waveguide so as to couple the fundamental mode of the central guide and the fundamental mode of the peripheral guide, the fundamental mode being defined as the first propagation mode. - the elementary sources (S1, S11-S16) are associated in identical sub-networks around a central elementary source (S1-S7), each sub-network being intended to form a beam; and that - two adjacent sub-networks include at least one elementary source in common; - a supply and polarization stage to power-supply and polarize the electromagnetic field at the accesses of the central elementary sources (S1-S7); and - a stage for distributing the power derived from the central elementary sources to the elementary sources of the corresponding sub-network and those shared by several sub-networks according to a determined amplitude law;
A bakery machine installation for conveying dough, comprising a conveyor belt device with a conveyor belt driven over a roller conveyor, the longitudinal side edges of which conveyor belt are raised by supporting means in some regions to form a central region which is recessed relative to the longitudinal side edges, wherein the conveyor belt is constructed in at least two layers in the region of its longitudinal side edges, wherein the lateral upper layers are arranged flexibly and at a distance from the longitudinal side edges via a respective line-like connection on the or a lower layer or the central region, F wherein the lateral upper layers merge integrally into the material of the central region, wherein the central region of the conveyor belt is substantially flat in cross-section when the lateral upper layers are raised, characterised in that the line-like connections between the central region and the lateral upper layers are formed like film hinges, wherein the elasticity of the lateral upper layers is greater than the elasticity of the central region and/or the lateral lower layers.
A light emitting arrangement (100, 200, 300, 400), comprising - a plurality of solid state light sources (101, 201a-b, 301a-b, 401a-b, 501a-c), forming at least one group of light sources, arranged to provide a light distribution comprising a first light portion and a second light portion, wherein at least some of said solid state light sources (101, 201a, 201b, 301a, 301b, 401a, 401b) are adapted to emit light of a first wavelength range having a dominant wavelength of 507±30 nm - at least one optical component (104, 106, 204, 304, 404, 406, 503a-c) adapted to at least partly collimate light emitted by said light sources, to yield output light exiting the light emitting arrangement comprising central output light and peripheral output light, wherein said central output has a dominant wavelength of 555±20 nm and a light intensity of at least 3 cd/m 2, and said peripheral output light has a dominant wavelength of 507±30 nm and a light intensity of less than 3 cd/m 2, and wherein the light emitting arrangement further comprises - at least a first wavelength converting member (102, 202, 302, 402) capable of converting light of said first wavelength range into light of a second wavelength range having a dominant wavelength of 555 ±20 nm, and being arranged to receive and at least partially convert said first light portion provided by at least some of said plurality of solid state light sources and arranged to allow said second light portion provided by said solid state light sources to pass beside said first wavelength converting member. - a plurality of solid state light sources (101, 201a-b, 301a-b, 401a-b, 501a-c), forming at least one group of light sources, arranged to provide a light distribution comprising a first light portion and a second light portion, wherein at least some of said solid state light sources (101, 201a, 201b, 301a, 301b, 401a, 401b) are adapted to emit light of a first wavelength range having a dominant wavelength of 507±30 nm - at least one optical component (104, 106, 204, 304, 404, 406, 503a-c) adapted to at least partly collimate light emitted by said light sources, to yield output light exiting the light emitting arrangement comprising central output light and peripheral output light, - at least a first wavelength converting member (102, 202, 302, 402) capable of converting light of said first wavelength range into light of a second wavelength range having a dominant wavelength of 555 ±20 nm, and being arranged to receive and at least partially convert said first light portion provided by at least some of said plurality of solid state light sources and arranged to allow said second light portion provided by said solid state light sources to pass beside said first wavelength converting member.
A monoclonal antibody capable of binding to human GDF-15, or an antigen-binding portion thereof capable of binding to human GDF-15, wherein: i) the heavy chain variable domain comprises a CDR3 region comprising the amino acid sequence of SEQ ID NO: 5 or an amino acid sequence at least 90% identical thereto, and wherein the light chain variable domain comprises a CDR3 region comprising the amino acid sequence of SEQ ID NO: 7 or an amino acid sequence at least 85% identical thereto, and wherein the antibody or the antigen-binding portion thereof is capable of inhibiting cancer growth in a mammal, or ii) the binding is binding to a conformational or discontinuous epitope on human GDF-15 comprised by the amino acid sequences of SEQ ID No: 25 and SEQ ID No: 26, and wherein the antibody or the antigen-binding portion thereof is capable of inhibiting cancer growth in a mammal. i) the heavy chain variable domain comprises a CDR3 region comprising the amino acid sequence of SEQ ID NO: 5 or an amino acid sequence at least 90% identical thereto, and wherein the light chain variable domain comprises a CDR3 region comprising the amino acid sequence of SEQ ID NO: 7 or an amino acid sequence at least 85% identical thereto, and wherein the antibody or the antigen-binding portion thereof is capable of inhibiting cancer growth in a mammal, or ii) the binding is binding to a conformational or discontinuous epitope on human GDF-15 comprised by the amino acid sequences of SEQ ID No: 25 and SEQ ID No: 26, and wherein the antibody or the antigen-binding portion thereof is capable of inhibiting cancer growth in a mammal.