mhurhangee/ep-ind-claims huggingface dataset:
Method for cutting a watch crystal along a contour in a plate of transparent material, characterized in that the following steps are performed in succession and in the following order: - first step: realizing, on a first side of said plate, a first cut line on at least the inside of said contour, to form a first chamfer, for each of said crystals to be made from said plate; - second step: turning over said plate and marking the position of said first chamfers and/or of at least one machined marking made during said first step of forming said first chamfers; - third step: realizing on a second side of said plate, opposite to said first side, a second cut line on at least the inside of said contour, to form a second chamfer, in alignment with each said first cut line and each said first chamfer, for each of said crystals to be made from said plate; - fourth step: separating said crystals from a skeleton of said plate by machining through said plate at each said contour of each said crystal to form an edge of said crystal. - first step: realizing, on a first side of said plate, a first cut line on at least the inside of said contour, to form a first chamfer, for each of said crystals to be made from said plate; - second step: turning over said plate and marking the position of said first chamfers and/or of at least one machined marking made during said first step of forming said first chamfers; - third step: realizing on a second side of said plate, opposite to said first side, a second cut line on at least the inside of said contour, to form a second chamfer, in alignment with each said first cut line and each said first chamfer, for each of said crystals to be made from said plate; - fourth step: separating said crystals from a skeleton of said plate by machining through said plate at each said contour of each said crystal to form an edge of said crystal.
An electromagnet coil assembly (10-10') comprising * a core; * a winding constituting the coil being wound in a plurality of turns around said core; and multiple power taps (13a-13b) for electrically connecting the winding to an external power circuit, wherein said winding is being formed as a tape element comprising a high-temperature superconducting, HTS, material; and the multiple power taps are connected to the HTS tape winding exiting the plane of the coil at an angle, characterized in that the power taps (13a-13b) - seen from their position exiting the plane of the coil till their connection to a power terminal of the external power circuit - exhibit a curvature which curvature coincides with a field line of the magnetic field generated by the electromagnet coil assembly during operation. * a core; * a winding constituting the coil being wound in a plurality of turns around said core; and multiple power taps (13a-13b) for electrically connecting the winding to an external power circuit, wherein said winding is being formed as a tape element comprising a high-temperature superconducting, HTS, material; and the multiple power taps are connected to the HTS tape winding exiting the plane of the coil at an angle, characterized in that the power taps (13a-13b) - seen from their position exiting the plane of the coil till their connection to a power terminal of the external power circuit - exhibit a curvature which curvature coincides with a field line of the magnetic field generated by the electromagnet coil assembly during operation.
A method for routing contacts to agents in a contact center system, the method comprising: comparing, via a pattern matching algorithm, contact data for each contact of a set of contacts in a chronologically listed queue with agent data for an available agent and with past contact-agent outcome data, wherein the pattern matching algorithm includes a neural network architecture having multiple neural networks; determining a single metric for each possible contact-agent pair between each contact of the set of contacts and the available agent by combining output variables from the multiple neural networks, wherein each of the output variables is from one of the multiple neural networks; and routing, using a contact center router, a contact of the set of contacts to the available agent with an individual telephone or other telecommunications equipment based on a highest single metric indicating a best matching contact. comparing, via a pattern matching algorithm, contact data for each contact of a set of contacts in a chronologically listed queue with agent data for an available agent and with past contact-agent outcome data, wherein the pattern matching algorithm includes a neural network architecture having multiple neural networks; determining a single metric for each possible contact-agent pair between each contact of the set of contacts and the available agent by combining output variables from the multiple neural networks, wherein each of the output variables is from one of the multiple neural networks; and routing, using a contact center router, a contact of the set of contacts to the available agent with an individual telephone or other telecommunications equipment based on a highest single metric indicating a best matching contact.
A food processing apparatus comprising: a tank having an inlet for receiving food product and an outlet for discharging food product, the tank having an inner wall defining a compartment; a rotatable auger mounted in the compartment 52, the auger for advancing food product within the compartment from the inlet toward the outlet, the auger including flights having a radial edge; and at least two manifolds supported in the compartment above the axis of the auger, the manifolds being spaced along the radial edge from one another, the manifolds being configured to inject fluid into the compartment; wherein the inner wall has a curved portion with a radius of curvature generally centred on the axis, wherein the tank has a wall portion extending outwardly from one end of the curved portion to define a recessed portion, and wherein the manifold is positioned in the recessed portion and configured to inject fluid downwardly along an associated opposite side of the curved portion; and wherein the inner wall has a perforated wall portion extending from the one end of the curved portion and at least partially covering the recessed portion, and wherein the manifold is configured to inject fluid through the perforated wall portion. a tank having an inlet for receiving food product and an outlet for discharging food product, the tank having an inner wall defining a compartment; a rotatable auger mounted in the compartment 52, the auger for advancing food product within the compartment from the inlet toward the outlet, the auger including flights having a radial edge; and at least two manifolds supported in the compartment above the axis of the auger, the manifolds being spaced along the radial edge from one another, the manifolds being configured to inject fluid into the compartment; wherein the inner wall has a curved portion with a radius of curvature generally centred on the axis, wherein the tank has a wall portion extending outwardly from one end of the curved portion to define a recessed portion, and wherein the manifold is positioned in the recessed portion and configured to inject fluid downwardly along an associated opposite side of the curved portion; and wherein the inner wall has a perforated wall portion extending from the one end of the curved portion and at least partially covering the recessed portion, and wherein the manifold is configured to inject fluid through the perforated wall portion.
A method for estimating a measure of cardiovascular health of a subject, said method comprising: receiving an electrocardiogram, ECG, signal of the subject; receiving an artery signal representative of pressure pulse wave propagation at a location in an artery of the subject; determining a fiducial point in time based on the ECG signal, said fiducial point in time providing an indication of onset of isovolumetric contraction of the subject's heart; determining a pre-systolic pressure pulse arrival point in time based on the artery signal, wherein the pre-systolic pressure pulse arrival point in time is determined to correspond to the onset of the isovolumetric contraction of the subject's heart being reflected in the artery signal, characterised in that said method further comprises: determining a time period between the onset of the isovolumetric contraction of the subject's heart and reflection of the onset of the isovolumetric contraction of the subject's heart in the artery signal based on the fiducial point in time and the pre-systolic pressure pulse arrival point in time, said time period representing a vascular transit time; and determining a pulse wave velocity of the subject based on a physical distance between an aortic valve and the location in the artery and on the vascular transit time. receiving an electrocardiogram, ECG, signal of the subject; receiving an artery signal representative of pressure pulse wave propagation at a location in an artery of the subject; determining a fiducial point in time based on the ECG signal, said fiducial point in time providing an indication of onset of isovolumetric contraction of the subject's heart; determining a pre-systolic pressure pulse arrival point in time based on the artery signal, wherein the pre-systolic pressure pulse arrival point in time is determined to correspond to the onset of the isovolumetric contraction of the subject's heart being reflected in the artery signal, characterised in that said method further comprises: determining a time period between the onset of the isovolumetric contraction of the subject's heart and reflection of the onset of the isovolumetric contraction of the subject's heart in the artery signal based on the fiducial point in time and the pre-systolic pressure pulse arrival point in time, said time period representing a vascular transit time; and determining a pulse wave velocity of the subject based on a physical distance between an aortic valve and the location in the artery and on the vascular transit time. determining a time period between the onset of the isovolumetric contraction of the subject's heart and reflection of the onset of the isovolumetric contraction of the subject's heart in the artery signal based on the fiducial point in time and the pre-systolic pressure pulse arrival point in time, said time period representing a vascular transit time; and determining a pulse wave velocity of the subject based on a physical distance between an aortic valve and the location in the artery and on the vascular transit time.
A dual-mode Peripheral Component Interconnect express, PCIe, device configured to operate in a root complex, RC, mode or an endpoint mode, comprising: a bus interface configured to be coupled to a wire-based PCIe link; and control circuitry configured to: initialize the dual-mode PCIe device into the RC mode; perform a configuration and initiation sequence on the wire-based PCIe link via the bus interface; determine a link state of the wire-based PCIe link upon completion of the configuration and initiation sequence; invoke a random delay resulting from the link state indicating that the configuration and initiation sequence performed on the wire-based PCIe link is unsuccessful; and switch the dual-mode PCIe device to the endpoint mode at expiration of the random delay. a bus interface configured to be coupled to a wire-based PCIe link; and control circuitry configured to: initialize the dual-mode PCIe device into the RC mode; perform a configuration and initiation sequence on the wire-based PCIe link via the bus interface; determine a link state of the wire-based PCIe link upon completion of the configuration and initiation sequence; invoke a random delay resulting from the link state indicating that the configuration and initiation sequence performed on the wire-based PCIe link is unsuccessful; and switch the dual-mode PCIe device to the endpoint mode at expiration of the random delay. initialize the dual-mode PCIe device into the RC mode; perform a configuration and initiation sequence on the wire-based PCIe link via the bus interface; determine a link state of the wire-based PCIe link upon completion of the configuration and initiation sequence; invoke a random delay resulting from the link state indicating that the configuration and initiation sequence performed on the wire-based PCIe link is unsuccessful; and switch the dual-mode PCIe device to the endpoint mode at expiration of the random delay.
An isolated monoclonal antibody, comprising a heavy chain variable domain and a light chain variable domain, wherein: the heavy chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 26-33, 51-58 and 97-114 of SEQ ID NO: 32 respectively, and the light chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 27-30, 48-50 and 87-91 of SEQ ID NO: 9 respectively; the heavy chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 26-33, 51-58 and 97-114 of SEQ ID NO: 259 respectively, and the light chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 27-30, 48-50 and 87-91 of SEQ ID NO: 9 respectively; or the heavy chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residuess 26-33, 51-58 and 97-114 of SEQ ID NO: 2 respectively, and the light chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 27-30), 48-50 and 87-91 of SEQ ID NO: 9 respectively; and wherein the antibody specifically binds gp120 of HIV-1, and wherein the antibody is neutralizing, or an isolated antigen binding fragment of the isolated monoclonal antibody wherein the fragment is a Fab fragment, a Fab' fragment, a F(ab)' 2 fragment, a single chain Fv protein (scFv), or a disulfide stabilized Fv protein (dsFv). the heavy chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 26-33, 51-58 and 97-114 of SEQ ID NO: 32 respectively, and the light chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 27-30, 48-50 and 87-91 of SEQ ID NO: 9 respectively; the heavy chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 26-33, 51-58 and 97-114 of SEQ ID NO: 259 respectively, and the light chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 27-30, 48-50 and 87-91 of SEQ ID NO: 9 respectively; or the heavy chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residuess 26-33, 51-58 and 97-114 of SEQ ID NO: 2 respectively, and the light chain variable domain of the antibody comprises CDR1, 2 and 3 having amino acid residues 27-30), 48-50 and 87-91 of SEQ ID NO: 9 respectively; and
A machine for the blow-molding or stretch blow-molding of bottles or containers in a polymeric material having a plurality of moulds that are movable on a transport system, wherein each of said moulds comprises a first half shell and a second half shell hinged about a hinge axis, at the end opposite to said hinge axis, said half shells (2a, 2b) having an edge (9a 9b), wherein said edges (9a, 9b) comprise abutment profiles (10a, 10b), the outwardly facing surface of said abutment profiles (10a, 10b) comprising a vertical rib (13a, 13b), wherein on one of the two half shells (2a, 2b) is rotatably hinged a closure member of the mould, suitable to keep the half shells (2a, 2b) joined during the blow-molding or stretch blow-molding process, the closure member comprising a body having a C-shaped profile facing the abutment profiles (10a, 10b) so as to laterally contain said vertical ribs (13a, 13b), wherein said closure member is hinged on said abutment profile by one or more hinge members (15, 15'), characterized in that each of the hinge members (15, 15') comprises a through hole arranged vertically and suitable to house a pin and a cavity extending perpendicularly to the through hole and in a substantially tangential direction with respect to the abutment profile outer surface, wherein said cavity houses a thrust member suitable to keep said pin pushed against the walls of said through hole.
A fiber-reinforced pressure vessel with an inner vessel made from a thermoplastic material to accommodate a filling medium with an outer side and a fiber composite layer arranged around the outer side to provide a pressure resistance of the pressure vessel, and at least one valve connection connected to inner vessel and fiber composite layer, wherein a thermoplastic band is additionally applied at least in some regions to the outer side of the inner vessel, wherein the thermoplastic band has at least one matrix material made from a material identical to the inner vessel, characterized in that the fiber composite layer is a layer with several plies (F1,..., Fn) made from fiber composite material embedded in a matrix material and the thermoplastic band is interwoven with at least one ply facing the inner vessel.
LED carrier element with a body, which has a surface which serves as a carrying surface for LED's, wherein the carrying surface comprised folded edges, wherein conductor paths are located on the carrying surface, which serve to provide the electrical supply to LED's and extend over the folded edges of the carrying surface, and wherein LED's or base elements for LED's are connected electrically and mechanically with the conductor paths, in such a way that the main radiation directions of at least some of the LED's point in different spatial directions, wherein the body is formed from a metallic material, in particular from aluminium, and provided between the carrying surface and the conductor paths is an insulation layer, in particular an oxide layer and/or a ceramic layer, characterized in that the conductor paths are applied by means of a pad printing process, wherein a metallic germinal layer is applied by means of the pad printing process, and the conductor paths are consequently thickened by the galvanizing.
A vehicle information presenting apparatus for use in an autonomous vehicle that switches driving control between autonomous driving control, in which the vehicle is driven autonomously, and manual driving control, in which the vehicle is driven manually by a driver, the vehicle information presenting apparatus comprising: a driving attention level estimator configured to estimate a driving attention level of the driver; and an information presentation controller configured to switch image information to present to the driver according to the driving attention level of the driver estimated by the driving attention level estimator, characterized in that the information presentation controller switches between autonomous driving system condition information and driving assistance information for transitioning from autonomous driving to manual driving. a driving attention level estimator configured to estimate a driving attention level of the driver; and an information presentation controller configured to switch image information to present to the driver according to the driving attention level of the driver estimated by the driving attention level estimator, characterized in that the information presentation controller switches between autonomous driving system condition information and driving assistance information for transitioning from autonomous driving to manual driving.
A seeding machine, comprising: at least one toolbar; a plurality of row units connected to said toolbar, each of said row units having: a seed metering device including a seed disk providing a metering action to a plurality of seeds; a seed placement device receiving the seeds from said seed metering device; a seed sensor positioned to detect the passage of seeds through one of said metering device and said seed placement device, said seed sensor producing a signal indicative of the passage of the seeds; and a processing circuit receptive of said signal from each said seed sensor of each of said plurality of row units and determining a seed placement parameter dependent upon said signal, said processing circuit altering said metering action of the seeds dependent on said seed placement parameter, characterized in that said processing circuit is a part of a seeding monitor (16, 40) located at a rear portion of the seeding machine, said seeding monitor having a display area directed toward said rear portion of the seeding machine.
A method of making a package for a skin drug solution holding body comprising: placing a base material to be used by attaching it to skin and a drug solution for impregnating the base material, in a packaging bag; and vacuum-sealing the packaging bag in which the base material and drug solution are placed, wherein the drug solution has a viscosity of between 5,000 mPa · sec and 50,000 mPa · sec, wherein the base material that is folded along a horizontal folding line, is placed in the packaging bag having an opening at any one of an upper end and a lower end, and wherein while a drug solution is being injected from an opening of the packaging bag into the interior of the packaging bag in which a folded base material is placed, the drug solution is injected into gaps between sheet pieces of the folded base material.
A method implemented by a first base station (110a, 900, 1200) of a first operator, for avoiding cell identity collision or confusion among base stations of different operators comprising: sending, to a first neighbor base station (110b, 1000, 1200) of the first operator, a request for a neighbor cell identity of the first neighbor base station (110b, 1000, 1200), the first neighbor base station (110b, 1000, 1200) being adjacent to the first base station (110a, 900, 1200); characterized by: receiving, from the first neighbor base station (110b, 1000, 1200), a second cell identity of a second neighbor base station (110d, 110g) of a second operator, the second operator being different from the first operator, and the second neighbor base station (110d, 110g) being adjacent to the first neighbor base station (110b, 1000, 1200), and a neighbor relation table, NRT, indicative of the second operator of the second neighbor base station is different than the first operator; and determining a first cell identity of the first base station (110a, 900, 1200) at least in part based on the received second cell identity. sending, to a first neighbor base station (110b, 1000, 1200) of the first operator, a request for a neighbor cell identity of the first neighbor base station (110b, 1000, 1200), the first neighbor base station (110b, 1000, 1200) being adjacent to the first base station (110a, 900, 1200); characterized by: receiving, from the first neighbor base station (110b, 1000, 1200), a second cell identity of a second neighbor base station (110d, 110g) of a second operator, the second operator being different from the first operator, and the second neighbor base station (110d, 110g) being adjacent to the first neighbor base station (110b, 1000, 1200), and a neighbor relation table, NRT, indicative of the second operator of the second neighbor base station is different than the first operator; and determining a first cell identity of the first base station (110a, 900, 1200) at least in part based on the received second cell identity. receiving, from the first neighbor base station (110b, 1000, 1200), a second cell identity of a second neighbor base station (110d, 110g) of a second operator, the second operator being different from the first operator, and the second neighbor base station (110d, 110g) being adjacent to the first neighbor base station (110b, 1000, 1200), and a neighbor relation table, NRT, indicative of the second operator of the second neighbor base station is different than the first operator; and determining a first cell identity of the first base station (110a, 900, 1200) at least in part based on the received second cell identity.