mhurhangee/ep-ind-claims huggingface dataset:
A near-infrared blocking filter comprising: (i) a near-infrared absorbing substance which is a copper compound represented by the following formula: Cu n1 · n2 Formula wherein L represents a ligand that coordinates copper; X is absent or represents a halogen atom, H 2 O, NO 3, ClO 4, SO 4, CN, SCN, BF 4, PF 6, BPh 4 or an alcohol; and n1 and n2 are independently an integer from 1 to 4; and (ii) a water-soluble binder selected from gelatin derived from an animal protein and a sol-gel substance obtained by hydrolyzing and polycondensing one or more alkoxide compounds of an element selected from Si, Ti, Zr and Al; wherein: the filter has a film thickness of 300 μm or less, the visible light transmissivity of the filter in the wavelength range of 450 nm to 550 nm is 85% or more, the light transmissivity of the filter at a wavelength of 800 nm is 20% or less, and the light transmissivity of the filter at a wavelength of 850 nm is 20% or less. (i) a near-infrared absorbing substance which is a copper compound represented by the following formula: Cu n1 · n2 Formula wherein L represents a ligand that coordinates copper; X is absent or represents a halogen atom, H 2 O, NO 3, ClO 4, SO 4, CN, SCN, BF 4, PF 6, BPh 4 or an alcohol; and n1 and n2 are independently an integer from 1 to 4; and (ii) a water-soluble binder selected from gelatin derived from an animal protein and a sol-gel substance obtained by hydrolyzing and polycondensing one or more alkoxide compounds of an element selected from Si, Ti, Zr and Al; wherein: the filter has a film thickness of 300 μm or less, the visible light transmissivity of the filter in the wavelength range of 450 nm to 550 nm is 85% or more, the light transmissivity of the filter at a wavelength of 800 nm is 20% or less, and the light transmissivity of the filter at a wavelength of 850 nm is 20% or less. the filter has a film thickness of 300 μm or less, the visible light transmissivity of the filter in the wavelength range of 450 nm to 550 nm is 85% or more, the light transmissivity of the filter at a wavelength of 800 nm is 20% or less, and the light transmissivity of the filter at a wavelength of 850 nm is 20% or less.
Method for distributing heat in a coolant circuit of a vehicle, in which coolant circuit actuators (33, 35, 39, 41, 43) are connected for distributing heat generated in an internal combustion engine to at least one first unit, i.e. the internal combustion engine, and a second unit, i.e. a heater, wherein an engine control unit is allocated to the first unit for generating a first requirement signal which corresponds to the heating or cooling requirement of the first unit, and an air conditioning control unit is allocated to the second assembly for generating a second requirement signal which corresponds to the heating or cooling requirement of the second unit, wherein the heater formed as the second unit comprises an input unit for inputting, by the passenger, a target temperature in the interior of the vehicle, and at least one regulating unit, and the regulating unit is controlled by a manipulated variable depending on the target temperature, characterised in that a central evaluation unit is allocated to the engine control unit and the air conditioning control unit which evaluates the requirement signals (BM, BK), i.e. in a weighted and/or prioritized manner, and on this basis creates control signals (SM, SK) for the actuators (33, 35, 39, 41, 43) of the coolant circuit, and in a first step, the requirement signal is evaluated based on the outside temperature (T a) and a target exhaust air temperature (T s) for generating the requirement signal and, in a second step, the requirement signal is corrected depending on the manipulated variable of the control unit, and the air conditioning control unit determines in the first step a characteristic value from a characteristic map depending on the outside temperature (T a) and the target exhaust air temperature (T s), and in the second step, the characteristic value yields the requirement signal of the heater depending on the manipulated variable of the control unit.
Device for reducing at least one self-interference contribution in a full-duplex wireless communication system configured to transmit a transmission signal (TX OUT) with a transmission carrier (LO TX) and modulated by a baseband signal (TX BB), and configured to receive a reception signal (RX IN) containing at least one self-interference contribution corresponding to the transmission signal (TX OUT), said reduction device comprising at least one first reduction module (B CC), configured to take a replica of the transmission signal (TX OUT), and configured to generate a first reduction signal (SIG CC), characterized in that it further comprises: - a second reduction module (B ENV), arranged so as to be able to take a replica of the baseband signal (TX BB), and capable of generating a second reduction signal (SIG ENV) that is a function of the temporal derivative of the baseband signal (TX BB), - a subtractor, linked to the first reduction module (B CC) and to the second reduction module (B ENV), and configured to subtract from the reception signal (RX IN) the first reduction signal (SIG CC) and the second reduction signal (SIG ENV). - a second reduction module (B ENV), arranged so as to be able to take a replica of the baseband signal (TX BB), and capable of generating a second reduction signal (SIG ENV) that is a function of the temporal derivative of the baseband signal (TX BB), - a subtractor, linked to the first reduction module (B CC) and to the second reduction module (B ENV), and configured to subtract from the reception signal (RX IN) the first reduction signal (SIG CC) and the second reduction signal (SIG ENV).
A method for displaying instant messaging messages, comprising: detecting whether an instant messaging message to be displayed comprises a hyperlink; when it is detected that the instant messaging message comprises the hyperlink, characterized by verifying whether the hyperlink matches a predetermined rule which is set based on uniform resource locators (URLs) of a type of service, and pulling out abstract information corresponding to the hyperlink according to the predetermined rule when it is verified that the hyperlink matches the predetermined rule; inserting a control; filling the pulled-out abstract information in the inserted control; and displaying the instant messaging message as well as the control in which the abstract information corresponding to the hyperlink is filled, wherein pulling out the abstract information corresponding to the hyperlink according to the predetermined rule comprises: pulling out a type of abstract information of a webpage corresponding to the hyperlink according to the predetermined rule. detecting whether an instant messaging message to be displayed comprises a hyperlink; when it is detected that the instant messaging message comprises the hyperlink, characterized by verifying whether the hyperlink matches a predetermined rule which is set based on uniform resource locators (URLs) of a type of service, and pulling out abstract information corresponding to the hyperlink according to the predetermined rule when it is verified that the hyperlink matches the predetermined rule; inserting a control; filling the pulled-out abstract information in the inserted control; and displaying the instant messaging message as well as the control in which the abstract information corresponding to the hyperlink is filled, wherein pulling out the abstract information corresponding to the hyperlink according to the predetermined rule comprises: pulling out a type of abstract information of a webpage corresponding to the hyperlink according to the predetermined rule. pulling out a type of abstract information of a webpage corresponding to the hyperlink according to the predetermined rule.
A 3D printer (1, 1a) comprising: a machine body (10, 10a); a door sheet (12, 12a) movably connected to the machine body (10, 10a); a material rack (20, 20a) fixed to the door sheet (12, 12a) and disposed in an inner area toward an inside of the machine body (10, 10a), the material rack (20, 20a) including a positioning plate and a plurality of partition members, the partition members dividing the inner area into a plurality of material receiving compartments; at least one material tube, the material tube including a pair of wings, each of the partition members including a positioning recess correspondingly, the material tube being positioned in the material receiving compartment by disposing of the pair of the wings in a spanning manner on the positioning recesses of two adjacent partition members; a driving module (30, 30a) disposed inside the machine body (10, 10a); and a printing module (40, 40a) disposed inside the machine body (10, 10a) and driven by the driving module (30, 30a) to move to the material receiving compartment, the material tube is driven by the printing module (40, 40a) to move out of the material receiving compartment and be positioned on the printing module (40, 40a). a machine body (10, 10a); a door sheet (12, 12a) movably connected to the machine body (10, 10a); a material rack (20, 20a) fixed to the door sheet (12, 12a) and disposed in an inner area toward an inside of the machine body (10, 10a), the material rack (20, 20a) including a positioning plate and a plurality of partition members, the partition members dividing the inner area into a plurality of material receiving compartments; at least one material tube, the material tube including a pair of wings, each of the partition members including a positioning recess correspondingly, the material tube being positioned in the material receiving compartment by disposing of the pair of the wings in a spanning manner on the positioning recesses of two adjacent partition members; a driving module (30, 30a) disposed inside the machine body (10, 10a); and a printing module (40, 40a) disposed inside the machine body (10, 10a) and driven by the driving module (30, 30a) to move to the material receiving compartment, the material tube is driven by the printing module (40, 40a) to move out of the material receiving compartment and be positioned on the printing module (40, 40a).
A burner comprising a boiler, a safe support assembly for the electric component parts of said burner and an air intake conduit; said assembly comprising a supporting panel made of polymer material and to which the electric component parts are fixed, and a.metal plate fixed to said supporting panel on the boiler side; there being formed in said supporting panel and in said metal plate a first opening (7, 15) facing an inlet of said air intake conduit, and a second opening (9, 16) facing an air/fuel mixture outlet of a duct connected to said intake conduit; said burner being characterized in that said support assembly comprises spacer means interposed between said supporting panel and said metal plate, and which define a gap with said supporting panel and said metal plate; and a number of openings being formed in said spacer means to connect said intake conduit to said gap.
A method of operation of a network node in a telecommunications network, the method, performed by the network node, comprising: storing information defining at least one network slice; comparing a neighbour cell list of said cell against a list of cells in the coverage area of the network slice; if one or more cell appearing in said neighbour cell list does not appear in the list of cells in the coverage area of the network slice, determining that said cell defines at least a part of the boundary of the coverage area of the network slice; based on said determining, for the at least one defined network slice, storing information identifying a plurality of cells that define at least a part of a boundary of a coverage area of the network slice; and adapting the operation of a cell depending on whether or not the cell defines at least a part of the boundary of the coverage area of the network slice. storing information defining at least one network slice; comparing a neighbour cell list of said cell against a list of cells in the coverage area of the network slice; if one or more cell appearing in said neighbour cell list does not appear in the list of cells in the coverage area of the network slice, determining that said cell defines at least a part of the boundary of the coverage area of the network slice; based on said determining, for the at least one defined network slice, storing information identifying a plurality of cells that define at least a part of a boundary of a coverage area of the network slice; and adapting the operation of a cell depending on whether or not the cell defines at least a part of the boundary of the coverage area of the network slice.
A center de-skew subassembly to align a document about a center of a path to be traveled by the document comprising: a lower-central plate with a planar surface having a centerline; a transport mechanism configured to transport the document so that the document is adjacent the lower-central plate; a pair of generally planar plates (172,173) operable to move in tandem toward and away from the centerline; a plurality of edge-detection sensors (175 A-D) on the pair of generally planar plates (172,173) configured to sense an edge of the document as the planar plates (172,173) move toward the centerline; a translate/rotate mechanism configured to translate and rotate the document until one of the edge-detection sensors (175 A-D) detects an edge of the document; and a control logic configured to control the planar plates (172,173) to move in tandem toward and from the centerline moving the plurality of edge-detection sensors (175 A-D) until at least one of the edge-detection sensors (175 A-D) detects an edge of the document, wherein the control logic is configured to operate the translate/rotate mechanism to rotate the document while controlling the plates (172,173) to move in tandem toward the centerline so that the translate/rotate mechanism aligns the document parallel to the centerline as a parallel-aligned document, and wherein the control logic is configured to control the translate/rotate mechanism to center the parallel-aligned document about the centerline to create a centered document. a lower-central plate with a planar surface having a centerline; a transport mechanism configured to transport the document so that the document is adjacent the lower-central plate; a pair of generally planar plates (172,173) operable to move in tandem toward and away from the centerline; a plurality of edge-detection sensors (175 A-D) on the pair of generally planar plates (172,173) configured to sense an edge of the document as the planar plates (172,173) move toward the centerline; a translate/rotate mechanism configured to translate and rotate the document until one of the edge-detection sensors (175 A-D) detects an edge of the document; and a control logic configured to control the planar plates (172,173) to move in tandem toward and from the centerline moving the plurality of edge-detection sensors (175 A-D) until at least one of the edge-detection sensors (175 A-D) detects an edge of the document, wherein the control logic is configured to operate the translate/rotate mechanism to rotate the document while controlling the plates (172,173) to move in tandem toward the centerline so that the translate/rotate mechanism aligns the document parallel to the centerline as a parallel-aligned document, and wherein the control logic is configured to control the translate/rotate mechanism to center the parallel-aligned document about the centerline to create a centered document.
Polymer fibre comprising at least one synthetic polymer, characterized in that the polymer forming the fibres in the form of a solid dispersion medium at room temperature (25°C) comprises between 0.1 and 20 wt.% of a high-molecular, non-cross-linked linear silicone polymer in the form of a solid disperse phase at room temperature (25°C) whose dynamic viscosity measured at 25°C according to DIN 53018 is at least 10,000 Pa*s.
Electrotherapy device for applying an electrical therapy pulse to the skin of a patient, comprising: - a pulse source for outputting a pulse voltage; - an output capacitor which can be placed on the skin of the patient, comprises a first capacitor electrode connected to a first terminal of the pulse source and a second capacitor electrode connected to a second terminal of the pulse source and is adapted to convert the pulse voltage into the therapy pulse; characterized by a position sensor for sensing a position of the output capacitor on the skin during delivery of the therapy pulse. - a pulse source for outputting a pulse voltage; - an output capacitor which can be placed on the skin of the patient, comprises a first capacitor electrode connected to a first terminal of the pulse source and a second capacitor electrode connected to a second terminal of the pulse source and is adapted to convert the pulse voltage into the therapy pulse;
Bone screw (2, 20) for the angle-variable screwing of an implant plate to a bone, in particular of an implant plate according to one of claims 7 to 13, wherein the bone screw (2, 20) comprises a shank having a bone thread and a screw head at one end of the shank, and a groove-shaped recess running in the circumferential direction is formed in the screw head in its underside pointing to the shank, characterized in that the groove-shaped recess comprises a groove flank (12, 22) which is provided for clamping, tightening or locking to an implant plate, the groove flank (12, 22) provided for clamping or locking is the outer groove flank of the recess in the radial direction, and the groove flank (12, 22) provided for clamping or locking is inclined by an angle α in the axial direction with respect to the longitudinal axis of the shank, wherein α lies in a range between 30° and 50°, preferably between 35° and 45°.
A vibrating structure gyroscope, including a semiconductor substrate, a vibrating planar ring structure, support means (44a-44h) arranged to support the ring structure relative to the semiconductor substrate, the semiconductor substrate, the ring structure and the support means (44a-44h) being arranged substantially co-planar with one another, at least one primary drive transducer (45a, 45b) arranged to cause the ring structure to oscillate in a primary mode at the resonant frequency of the primary mode, at least one primary pick-off transducer (47a, 47b) arranged to detect oscillation of the ring structure in the primary mode, at least one secondary pick-off transducer (48a, 48b) arranged to detect oscillation of a secondary mode induced when angular velocity is applied around an axis substantially perpendicular to the ring structure, at least one secondary drive transducer (46a, 46b) arranged to null the induced secondary mode oscillation, the primary and secondary drive transducers (45a, 45b, 46a, 46b) and the primary and secondary pick- off transducers (4/a, 47b, 48a, 48b) all being arranged around the periphery of the ring structure and at least two oscillation frequency adjusting capacitor plates (49a to 49p) arranged around the periphery of the ring structure such that when a voltage is applied between at least one capacitor plate (49a-49p) and the ring structure an electrostatic force is generated between the capacitor plate and the ring structure to differentially adjust the frequencies of the primary and secondary modes to reduce the difference between the frequencies of the primary and secondary modes, and characterized in that at least one of the frequency adjusting capacitor plates (49a to 49p) is located externally of the periphery of the ring structure and the other frequency adjusting capacitor plate or capacitor plates (49a to 49p) being located internally of the periphery of the ring structure and wherein located internally of the periphery of the ring structure is either the at least one primary pick-off transducer (47a, 47b) or the at least one secondary drive transducer (46a, 46b) and located externally of the periphery of the ring structure is the other of the at least one primary pick-off transducer (47a, 47b) and the at least one secondary drive transducer (46a, 46b) so as to reduce a change in scale factor of the gyroscope under thermal expansion resulting in a change in the gap distance between the ring structure and the at least one primary pickoff transducer (47a, 47b) and at least one secondary drive transducer (46a, 46b).
A particle therapy device comprising: a gantry configured to receive a stream of particles generated by a particle accelerator; a treatment nozzle coupled to the gantry and configured to emit the stream of particles as a beam at a plurality of iso-centers disposed in a target subject; and a control system communicatively coupled to the treatment nozzle and configured to automatically control an emission of the beam of particles to irradiate a plurality of beam fields corresponding to the plurality of iso-centers, wherein the control system is further configured to: automatically group beam fields based on beam field or treatment factors and/or provide controls by a beam control interface for a user to add or remove beam fields to and from the beam field grouping; if adding a beam field to another beam field to create the grouping or adding the beam field to an existing grouping would require the addition, modification, or removal of a beam accessory during a single beam application, disallow the beam field grouping, and control the emission of the beam of particles to irradiate the beam field grouping in a contiguous beam application. a gantry configured to receive a stream of particles generated by a particle accelerator; a treatment nozzle coupled to the gantry and configured to emit the stream of particles as a beam at a plurality of iso-centers disposed in a target subject; and a control system communicatively coupled to the treatment nozzle and configured to automatically control an emission of the beam of particles to irradiate a plurality of beam fields corresponding to the plurality of iso-centers, wherein the control system is further configured to: automatically group beam fields based on beam field or treatment factors and/or provide controls by a beam control interface for a user to add or remove beam fields to and from the beam field grouping; if adding a beam field to another beam field to create the grouping or adding the beam field to an existing grouping would require the addition, modification, or removal of a beam accessory during a single beam application, disallow the beam field grouping, and control the emission of the beam of particles to irradiate the beam field grouping in a contiguous beam application. automatically group beam fields based on beam field or treatment factors and/or provide controls by a beam control interface for a user to add or remove beam fields to and from the beam field grouping; if adding a beam field to another beam field to create the grouping or adding the beam field to an existing grouping would require the addition, modification, or removal of a beam accessory during a single beam application, disallow the beam field grouping, and control the emission of the beam of particles to irradiate the beam field grouping in a contiguous beam application.