mhurhangee/ep-ind-claims huggingface dataset:
A lesion diagnosis apparatus comprising: a memory configured to store instructions; and at least one processor that, upon executing the stored instructions, is configured to: detect at least one lesion in images received from an ultrasound probe movable on the surface of a body part of a patient; display the images received from the ultrasound probe; and notify a user that the at least one lesion is detected, CHARACTERIZED IN THAT the at least one processor is further configured to: control the memory to store location information of the at least one detected lesion; display guide information based on the stored location information of the at least one detected lesion, when the lesion has been detected and in response to a movement of the ultrasound probe leaving a location of the detected lesion, wherein the guide information is a visualized image for guiding the user to move the ultrasound probe toward the location the detected lesion, and the guide information comprises at least one of a moving path, a moving distance, a moving direction, or a measured angle of the ultrasound probe. a memory configured to store instructions; and at least one processor that, upon executing the stored instructions, is configured to: detect at least one lesion in images received from an ultrasound probe movable on the surface of a body part of a patient; display the images received from the ultrasound probe; and notify a user that the at least one lesion is detected, CHARACTERIZED IN THAT detect at least one lesion in images received from an ultrasound probe movable on the surface of a body part of a patient; display the images received from the ultrasound probe; and notify a user that the at least one lesion is detected, CHARACTERIZED IN THAT the at least one processor is further configured to: control the memory to store location information of the at least one detected lesion; display guide information based on the stored location information of the at least one detected lesion, when the lesion has been detected and in response to a movement of the ultrasound probe leaving a location of the detected lesion, wherein the guide information is a visualized image for guiding the user to move the ultrasound probe toward the location the detected lesion, and the guide information comprises at least one of a moving path, a moving distance, a moving direction, or a measured angle of the ultrasound probe. control the memory to store location information of the at least one detected lesion; display guide information based on the stored location information of the at least one detected lesion, when the lesion has been detected and in response to a movement of the ultrasound probe leaving a location of the detected lesion, wherein the guide information is a visualized image for guiding the user to move the ultrasound probe toward the location the detected lesion, and the guide information comprises at least one of a moving path, a moving distance, a moving direction, or a measured angle of the ultrasound probe.
Roller test stand for at least partially electrically driven vehicles, comprising - an electric machine for driving or decelerating at least one running roller of the roller test stand, wherein the at least one running roller is provided for contacting the wheels of the vehicle to be tested; and - a control device which comprises a drive supply unit and a power unit; wherein the drive supply unit is provided for controlling the electric machine and is connected to a supply network, wherein the power unit can be contacted by at least one connection for electrical connection to the vehicle, and wherein the power unit and the drive supply unit are connected via a common intermediate circuit, and the power unit is supplied via the common intermediate circuit, so that energy absorbed by the roller test stand can be supplied to a vehicle battery via the power unit or, conversely, the vehicle battery can feed back energy via the drive supply unit for driving an electric machine of the roller test stand, so that optimum energy efficiency can be achieved by parallel operation of the roller test stand and vehicle battery charging operation. - an electric machine for driving or decelerating at least one running roller of the roller test stand, wherein the at least one running roller is provided for contacting the wheels of the vehicle to be tested; and - a control device which comprises a drive supply unit and a power unit;
A build material analyzer comprising: a build material distributor to form a layer of particles of build material on a support platform; a height sensor (104, 806) to take multiple height measurements of the layer of particles of build material; a processor (810, 906) configured to: control the build material distributor to form the layer of particles of material on the support platform; control the height sensor to determine a height profile of the layer of particles of build material; compare the height profile with a lower and an upper height limit and, if the height profile is between the lower and upper height limit, indicate that the build material has a particle size which complies with a chosen specification; and otherwise, determine if the build material could be used by a 3D printing system to generate a 3D object. a build material distributor to form a layer of particles of build material on a support platform; a height sensor (104, 806) to take multiple height measurements of the layer of particles of build material; a processor (810, 906) configured to: control the build material distributor to form the layer of particles of material on the support platform; control the height sensor to determine a height profile of the layer of particles of build material; compare the height profile with a lower and an upper height limit and, if the height profile is between the lower and upper height limit, indicate that the build material has a particle size which complies with a chosen specification; and otherwise, determine if the build material could be used by a 3D printing system to generate a 3D object. control the build material distributor to form the layer of particles of material on the support platform; control the height sensor to determine a height profile of the layer of particles of build material; compare the height profile with a lower and an upper height limit and, if the height profile is between the lower and upper height limit, indicate that the build material has a particle size which complies with a chosen specification; and otherwise, determine if the build material could be used by a 3D printing system to generate a 3D object.
A scan head comprising a camera and a control circuit of an aiming lamp, characterized in that: the control circuit of the aiming lamp comprises: a first pin connected with a scanning enable signal; a second pin connected with a field sync signal, wherein the field sync signal is connected with a first resistor and the first resistor is grounded; a third pin, wherein the third pin is grounded; a fourth pin connected with a grid electrode of a field effect transistor, wherein a drain electrode of the field effect transistor is connected with a high level (Vcc), and wherein a source electrode of the field effect transistor is connected with a second resistor, le second resistor is connected with a light-emitting diode, and the light-emitting diode is grounded; and a fifth pin coupled to the high level (Vcc), wherein the camera is configured to drive and output the field sync signal to the control circuit, wherein the control circuit is configured to separate a start point and an end point of a blanking time of the field sync signal, where the start point serves as a start signal of the aiming lamp, and the end point serves as a closing signal of the aiming lamp, and wherein the camera is configured to complete a decoding process within a time of an effective picture zone of the field sync signal such that the decoding time of the camera and the lightening time of the aiming lamp are completely separated to avoid local overexposure caused by an aiming beam of the aiming lamp. a first pin connected with a scanning enable signal; a second pin connected with a field sync signal, wherein the field sync signal is connected with a first resistor and the first resistor is grounded; a third pin, wherein the third pin is grounded; a fourth pin connected with a grid electrode of a field effect transistor, wherein a drain electrode of the field effect transistor is connected with a high level (Vcc), and wherein a source electrode of the field effect transistor is connected with a second resistor, le second resistor is connected with a light-emitting diode, and the light-emitting diode is grounded; and a fifth pin coupled to the high level (Vcc), wherein the camera is configured to drive and output the field sync signal to the control circuit, wherein the control circuit is configured to separate a start point and an end point of a blanking time of the field sync signal, where the start point serves as a start signal of the aiming lamp, and the end point serves as a closing signal of the aiming lamp, and wherein the camera is configured to complete a decoding process within a time of an effective picture zone of the field sync signal such that the decoding time of the camera and the lightening time of the aiming lamp are completely separated to avoid local overexposure caused by an aiming beam of the aiming lamp.
A RSV F polypeptide, protein or protein complex comprising: (a) an amino acid sequence having at least 70% sequence identity to amino acid residues 1-513 of SEQ ID NO.1 (RSV type A) or amino acid residues 1-513 of SEQ ID NO.3 (RSV type B), wherein the amino acid sequence comprises a point mutation to tyrosine at an amino acid position equivalent to position 226 in SEQ ID NO.1 or SEQ ID NO.3 and a tyrosine at an amino acid position equivalent to position 198 in SEQ ID NO.1 or SEQ ID NO.3, and (b) a trimerization domain, wherein the polypeptide, protein or protein complex is capable of folding into the pre-F conformation.
A road power generating system comprising: a piston housing; and a piston slideably positioned within said piston housing and disposed in an extended position to be engaged by a tyre; characterized in that the system further comprises: a crank connected to said piston; and an alternator connected to said crank; the system being characterized in that said crank is pivotally connected to said piston at a first pivot point and said piston housing at a second pivot point; and that said first pivot point moves in a fixed axial relation with said piston. a piston housing; and a piston slideably positioned within said piston housing and disposed in an extended position to be engaged by a tyre; characterized in that the system further comprises: a crank connected to said piston; and an alternator connected to said crank; the system being characterized in that said crank is pivotally connected to said piston at a first pivot point and said piston housing at a second pivot point; and that said first pivot point moves in a fixed axial relation with said piston. a crank connected to said piston; and an alternator connected to said crank; the system being characterized in that said crank is pivotally connected to said piston at a first pivot point and said piston housing at a second pivot point; and that said first pivot point moves in a fixed axial relation with said piston.
Signal amplifier circuit for amplifying a signal comprising: - at least one first amplifier transistor and at least one second amplifier transistor, wherein the first amplifier transistor and the second amplifier transistor are connected to one another in a push-pull circuit and are fed by an amplifier voltage source (V+, V-); and - one or more bias diodes (D1, D2) thermally coupled in each case to an associated amplifier transistor (Q1, Q2), wherein the bias diodes (D1, D2) are arranged in a parallel connection with respect to the amplifying transistors (Q1, Q2) in order to reduce or avoid a crossover distortion and in order to provide a bias voltage which follows the thermal behavior of the amplifier transistors (Q1, Q2), characterized in that the bias diodes (D1, D2) are fed by a precision constant current source (Ib), which is fed by a voltage source independent from the amplifier voltage source (V+, V-). - at least one first amplifier transistor and at least one second amplifier transistor, wherein the first amplifier transistor and the second amplifier transistor are connected to one another in a push-pull circuit and are fed by an amplifier voltage source (V+, V-); and - one or more bias diodes (D1, D2) thermally coupled in each case to an associated amplifier transistor (Q1, Q2), wherein the bias diodes (D1, D2) are arranged in a parallel connection with respect to the amplifying transistors (Q1, Q2) in order to reduce or avoid a crossover distortion and in order to provide a bias voltage which follows the thermal behavior of the amplifier transistors (Q1, Q2),
Direct current switch comprising a device configured for arc extinction independent of current direction, the direct current switch comprising at least two interconnected switch units (12, 14, 16, 18), wherein each switch unit has at least one current path (20, 22) including an interruption surface (24, 26), and each current path comprises at least two switch contact elements (28, 30) configured to form the interruption surface, at least one arc extinction device (32, 34) associated with one or more current paths of the switch units; and one or more magnetic field generation devices, wherein each generated magnetic field is assigned to an interruption surface of a different one of the switch units and oriented such that its field lines run substantially transversely to the respective interruption surface, and wherein at a predetermined direction of current flow, deflection forces of at least two generated magnetic fields act through current paths counter to arcs extending in a longitudinal direction of the respective interruption surface, such that at least one arc is deflected towards the arc extinction device and a further arc is deflected away from the arc extinction device, characterized in that the switch units are rotatory double interrupters, and an arc deflected away from the arc extinction device is directed onto a selector shaft or a selector shaft segment of a double interrupter.
A light-emitting device comprising: a base; a light-emitting element disposed on the base; and a light-transmissive member covering the light-emitting element, wherein an upper surface of the light-transmissive member and an upper surface of the base each have projections, wherein the light-transmissive member comprises particles of at least one light-transmissive first filler, the particles of the at least one light-transmissive first filler having refractive indices smaller than a refractive index of a matrix of the light-transmissive member, wherein a part of the particles of the at least one light-transmissive first filler is exposed from the matrix of the light-transmissive member on the upper surface of the light-transmissive member, and wherein the base comprises: at least one lead electrode; and a light-shielding member holding the at least one lead electrode, characterized in that the light-shielding member comprises: a resin matrix; and particles of a second filler, a part of the particles of the second filler being exposed from the resin matrix of the light-shielding member on an upper surface of the light-shielding member, and projections on the upper surface of the light-shielding member being caused by the particles of the second filler. a base; a light-emitting element disposed on the base; and a light-transmissive member covering the light-emitting element, wherein an upper surface of the light-transmissive member and an upper surface of the base each have projections, wherein the light-transmissive member comprises particles of at least one light-transmissive first filler, the particles of the at least one light-transmissive first filler having refractive indices smaller than a refractive index of a matrix of the light-transmissive member, wherein a part of the particles of the at least one light-transmissive first filler is exposed from the matrix of the light-transmissive member on the upper surface of the light-transmissive member, and wherein the base comprises: at least one lead electrode; and a light-shielding member holding the at least one lead electrode, at least one lead electrode; and a light-shielding member holding the at least one lead electrode, characterized in that the light-shielding member comprises: a resin matrix; and particles of a second filler, a resin matrix; and particles of a second filler, a part of the particles of the second filler being exposed from the resin matrix of the light-shielding member on an upper surface of the light-shielding member, and projections on the upper surface of the light-shielding member being caused by the particles of the second filler.
A platform scale with a platform (2, 100), which has a receiving surface for receiving the product to be weighed, wherein the longitudinal and width extension of the platform is a multiple of the thickness of the platform and the receiving surface lies in a receiving plane, which is spanned by the longitudinal extension and the width extension of the receiving surface, and with at least one, preferably a plurality of weighing cells (7, 8, 9, 10) for determining the weight of the product to be weighed, wherein the platform has a frame structure for stiffening the platform, and wherein the frame structure has at least one, preferably a plurality of stiffening struts (31, 32, 33, 80) extending parallel to the receiving plane and transversely over the receiving surface or along the side of the receiving surface, wherein the stiffening struts are an edge profile produced by at least one edge which comprises a plurality of mutually parallel edges characterised in that the support surface is formed by a support plate which is arranged on stiffening struts arranged at the edge with at least 5 edges and which is edged to form end faces.
A combination of a reading station and a support for a monitor, the reading station comprising an ergonomic support for reading attached to the support for a monitor, the ergonomic support for reading comprising a mobile pulpit, at least one positioning element, a mounting guide (4, 5) comprising at least one immobile element and at least one mobile element, the ergonomic support further comprising a pulpit guide (7, 9) comprising a mobile element, an elevator regulator and an inclination regulator, wherein the mobile pulpit is attached slidably and rotatably by the at least one positioning element to the at least one mobile element of the mounting guide (4, 5), wherein the mobile element of the mounting guide (4, 5) is mobile with respect to the immobile element of the mounting guide, wherein the immobile element is immovably mounted to the support for the monitor and the positioning element is set on the mobile element of the pulpit guide (7, 9) and the position of the pulpit with respect to the mobile element of the mounting guide (4, 5) is adjustable by the elevator regulator and the inclination of the pulpit with respect to the mobile element of the mounting guide (4, 5) is adjustable by the inclination regulator independently of the position of the pulpit guide (7, 9).
A battery pack charging system comprising: a battery pack comprising a plurality of battery cells; a charging device connected to both electrodes (110, 120) of the battery pack and configured to supply a charging current to the battery pack; and a switch connected between the battery pack and the charging device and configured to allow or block a flow of the charging current; characterised in that the battery pack charging system further comprises a current blocking member mechanically connected to the switch and configured to turn off the switch by causing a bending deformation when a potential difference formed between both electrodes (110, 120) of the battery pack is equal to or greater than a reference value, wherein one side of the current blocking member in a longitudinal direction is a fixed end directly or indirectly fixed to the battery pack or a ground, and the other side of the current blocking member is a free end of which position is changeable by the bending deformation, wherein the current blocking member comprises: an electro active polymer layer; a first metal layer formed on one side surface of the electro active polymer layer; and a second metal layer formed on the other side surface of the electro active polymer layer, wherein the first metal layer is electrically connected to a negative electrode of the battery pack, and wherein the second metal layer is electrically connected to a positive electrode of the battery pack. a battery pack comprising a plurality of battery cells; a charging device connected to both electrodes (110, 120) of the battery pack and configured to supply a charging current to the battery pack; and a switch connected between the battery pack and the charging device and configured to allow or block a flow of the charging current; characterised in that the battery pack charging system further comprises a current blocking member mechanically connected to the switch and configured to turn off the switch by causing a bending deformation when a potential difference formed between both electrodes (110, 120) of the battery pack is equal to or greater than a reference value, wherein one side of the current blocking member in a longitudinal direction is a fixed end directly or indirectly fixed to the battery pack or a ground, and the other side of the current blocking member is a free end of which position is changeable by the bending deformation, wherein the current blocking member comprises: an electro active polymer layer; a first metal layer formed on one side surface of the electro active polymer layer; and a second metal layer formed on the other side surface of the electro active polymer layer, an electro active polymer layer; a first metal layer formed on one side surface of the electro active polymer layer; and a second metal layer formed on the other side surface of the electro active polymer layer, wherein the first metal layer is electrically connected to a negative electrode of the battery pack, and wherein the second metal layer is electrically connected to a positive electrode of the battery pack.
Thermal integrated multi source plant (1; 100; 200; 300; 400; 500; 600) comprising: a control unit; a first tank configured to store a first fluid; at least a first thermal source associated to the first tank and configured to heat the first fluid; at least a second tank (11; 101, 102) configured to store a second fluid; at least a second thermal source associated at least to the second tank (11; 101, 102) and configured to operate in two alternative modes on the basis of a control signal produced by the control unit: a heating mode according to which the second fluid is heated and a cooling mode according to which the second fluid is cooled; an air-conditioning circuit (16; 116, 216; 316; 416; 516), which connects the second tank and/or the first tank to an air-conditioning plant and is provided with first regulating means (55; 109; 223; 305; 428, 430) configured to selectively supply the second fluid and/or the first fluid to the air-conditioning plant; the first regulating means (55; 109; 223; 305; 428, 430) being controlled by the control unit.