mhurhangee/ep-ind-claims huggingface dataset:
A vehicle comprising: a water-cooled condenser (4, 4A) that is provided with a refrigerant outlet port, and exchanges heat between refrigerant of an air conditioner for the vehicle and coolant, an air-cooled condenser into which the refrigerant sent from the water-cooled condenser (4, 4A) flows through a refrigerant outlet port; and a bumper reinforcement that is arranged in front of the air-cooled condenser at a front section of the vehicle, characterized in that the refrigerant outlet port is connected with the air-cooled condenser at a position that doesn't overlap the bumper reinforcement when viewed along an airflow direction toward the air-cooled condenser. a water-cooled condenser (4, 4A) that is provided with a refrigerant outlet port, and exchanges heat between refrigerant of an air conditioner for the vehicle and coolant, an air-cooled condenser into which the refrigerant sent from the water-cooled condenser (4, 4A) flows through a refrigerant outlet port; and a bumper reinforcement that is arranged in front of the air-cooled condenser at a front section of the vehicle, the refrigerant outlet port is connected with the air-cooled condenser at a position that doesn't overlap the bumper reinforcement when viewed along an airflow direction toward the air-cooled condenser.
Device for administering a liquid medicament, having a reservoir in which a medicament is held or can be held, and having a pump with a pump chamber which is fluidically connected to the reservoir via a one-way valve allowing medium to pass through only in the direction from the reservoir into the pump chamber and which is fluidically connected to a medicament outlet via a valve, wherein the valve has a valve body which has an inner space for receiving a liquid, wherein the valve body has a liquid inlet and, opposite the latter, a liquid outlet, which both open into the inner space, wherein a multiplicity of microchannels are arranged in the inner space, said microchannels extending in connection direction (x) between the liquid inlet and the liquid outlet, wherein the microchannels are formed from a grid of parallel, rod-shaped boundary elements, or from a plurality of parallel, mutually offset layers of a grid of parallel, rod-shaped boundary elements, wherein all of the parallel, rod-shaped boundary elements in the valve body are arranged in the inner space, characterized in that the inner space, the liquid inlet and the liquid outlet have the same cross-sectional area perpendicular to the connection direction (x). wherein the microchannels are formed from a grid of parallel, rod-shaped boundary elements, or from a plurality of parallel, mutually offset layers of a grid of parallel, rod-shaped boundary elements, wherein all of the parallel, rod-shaped boundary elements in the valve body are arranged in the inner space, characterized in that the inner space, the liquid inlet and the liquid outlet have the same cross-sectional area perpendicular to the connection direction (x).
System for determining, in an up-to-date manner, the suitability of technical units of a virtual power plant for providing positive or negative operating reserve, which units - are locally distributed as a virtual power plant for generating and/or storing and/or consuming electrical energy, and which units - are connected to a power supply network in order to feed in and/or withdraw electrical energy, and which units - are linked to a control centre via a communication link in order for the operation of said units to be controlled, wherein the system further comprises: - a state signal generator at each of the technical units, which is designed to transmit to the control centre, at regular time intervals and upon each state change of the relevant technical unit, a state signal which signals the state change and contains information about the current state of the technical unit, and - a computer in the control centre, which computer is designed to compare, based on the state signals and at least one scoring criterion, at least two of the technical units in terms of the suitability thereof for providing positive or negative operating reserve. - are locally distributed as a virtual power plant for generating and/or storing and/or consuming electrical energy, and which units - are connected to a power supply network in order to feed in and/or withdraw electrical energy, and which units - are linked to a control centre via a communication link in order for the operation of said units to be controlled, - a state signal generator at each of the technical units, which is designed to transmit to the control centre, at regular time intervals and upon each state change of the relevant technical unit, a state signal which signals the state change and contains information about the current state of the technical unit, and - a computer in the control centre, which computer is designed to compare, based on the state signals and at least one scoring criterion, at least two of the technical units in terms of the suitability thereof for providing positive or negative operating reserve.
Device for the production of a product which consists at least partly of a flowable mass which can be filled into a mould, wherein a vibrating or shaking device is assigned to the mould and the mould is placed on a carrier (3, 5), characterized in that the mould can be moved or shaken in the horizontal direction on the carrier (3, 5) by at least one horizontal vibrator and in the process strikes against a lateral stop.
Apparatus for processing a substrate in a process cycle for the deposition and/or removal of thin layers of materials on or from the substrate, the apparatus including a chamber for receiving a substrate in a process volume and characterised in that the apparatus further includes a movable wall, displaceable to vary the process volume in accordance with the process cycle and wherein the apparatus includes an exhaust outlet and the movable wall can be moved in use during a purge part of the process cycle to reduce the process volume to positively displace purge gas or vapour from the process volume through the exhaust outlet.
A path detection method performed by a path computation element, PCE, of a lower-layer network, wherein the method comprises: • receiving a path detection request sent by an upper-layer network, wherein the path detection request carries path information identifying multiple to-be-detected paths (S 201); • in response to the path detection request, determining the multiple to-be-detected paths according to the path information, and detecting whether the multiple to-be-detected paths are available (S 202), wherein the method further comprises: • updating a detection result in real time by regularly detecting whether each of the multiple to-be-detected paths is available, • wherein the path detection request further carries priorities of the multiple to-be-detected paths and a path detection feedback condition, being that the updated detection result is to be fed back when a to-be-detected path among the multiple to-be-detected paths whose priority is higher than a priority of a Label Switched Path, LSP, currently carrying a service is available, and feeding back the updated detection result to the upper-layer network when the updated detection result satisfies the feedback condition. • receiving a path detection request sent by an upper-layer network, wherein the path detection request carries path information identifying multiple to-be-detected paths (S 201); • in response to the path detection request, determining the multiple to-be-detected paths according to the path information, and detecting whether the multiple to-be-detected paths are available (S 202), wherein the method further comprises: • updating a detection result in real time by regularly detecting whether each of the multiple to-be-detected paths is available, • wherein the path detection request further carries priorities of the multiple to-be-detected paths and a path detection feedback condition, being that the updated detection result is to be fed back when a to-be-detected path among the multiple to-be-detected paths whose priority is higher than a priority of a Label Switched Path, LSP, currently carrying a service is available, and feeding back the updated detection result to the upper-layer network when the updated detection result satisfies the feedback condition.
A method for determining the 3D coordinates of an object, in which a stripe pattern is projected onto the object by a projector, the light reflected by the object is captured by a camera, and the shots recorded by the camera are evaluated, and reference marks on and/or beside the object are recorded by a reference camera which has a larger field of view than the camera, characterized in that a single reference camera is connected with the camera or with a 3D sensor which comprises the projector and the camera.
A carrying harness comprising: - two carrying shoulder straps (16a, 16b), - two chest straps (18a, 18b) respectively connected to the carrying shoulder straps (16a, 16b), - a chest fastener configured for joining the chest straps, the fastener extending in a fastener plane, - at least one tool-carrying strap, and in which: - the chest straps (18a, 18b) and the tool-carrying strap are connected to the chest fastener with freedom for pivotal movement in the fastener plane about at least one pivot axis passing through the chest fastener and perpendicular to the fastener plane, - the chest fastener comprises a first part and a second part which are non-pivotal and are provided with a central lock to attach the two parts to each other and a release member actuable with one hand to separate the two parts, the first part and the second part being respectively connected to the chest straps (18a, 18b), one of the parts having a central cylindrical button mounted on a flexible blade and the other part having a corresponding central cylindrical housing which can accommodate the central button, the central button with the housing constituting said central lock and the central button constituting the release member. - two carrying shoulder straps (16a, 16b), - two chest straps (18a, 18b) respectively connected to the carrying shoulder straps (16a, 16b), - a chest fastener configured for joining the chest straps, the fastener extending in a fastener plane, - at least one tool-carrying strap, and in which: - the chest straps (18a, 18b) and the tool-carrying strap are connected to the chest fastener with freedom for pivotal movement in the fastener plane about at least one pivot axis passing through the chest fastener and perpendicular to the fastener plane, - the chest fastener comprises a first part and a second part which are non-pivotal and are provided with a central lock to attach the two parts to each other and a release member actuable with one hand to separate the two parts, the first part and the second part being respectively connected to the chest straps (18a, 18b), one of the parts having a central cylindrical button mounted on a flexible blade and the other part having a corresponding central cylindrical housing which can accommodate the central button, the central button with the housing constituting said central lock and the central button constituting the release member.
Cooling equipment for a hot rolled steel plate which is arranged on a hot rolling line of a steel plate, the cooling equipment comprising: an upper header which supplies cooling water to an upper surface of the hot rolled steel plate; upper cooling water jetting nozzles which are suspended from the upper header for jetting rod-like water flow; and an upper dividing wall which is arranged between the hot rolled steel plate and the upper header, wherein a plurality of upper water-supply inlets, and a plurality of upper drain outlets which drain the cooling water supplied to the upper surface of the hot rolled steel plate on the upper dividing wall are formed in the upper dividing wall, and characterised in that the upper water-supply inlets allow the insertion of lower end portions of the upper cooling water jetting nozzles thereinto, and in that both of a total cross-sectional area of the upper drain outlets formed in the upper dividing wall and a cross-sectional area of a flow passage in the steel-plate widthwise direction in a space surrounded by a lower surface of the upper header and an upper surface of the upper dividing wall are set to a value not less than 1.5 times a total inner-diameter cross-sectional area of the upper cooling water jetting nozzles. an upper header which supplies cooling water to an upper surface of the hot rolled steel plate; upper cooling water jetting nozzles which are suspended from the upper header for jetting rod-like water flow; and an upper dividing wall which is arranged between the hot rolled steel plate and the upper header, wherein a plurality of upper water-supply inlets, and a plurality of upper drain outlets which drain the cooling water supplied to the upper surface of the hot rolled steel plate on the upper dividing wall are formed in the upper dividing wall, and characterised in that the upper water-supply inlets allow the insertion of lower end portions of the upper cooling water jetting nozzles thereinto, and in that both of a total cross-sectional area of the upper drain outlets formed in the upper dividing wall and a cross-sectional area of a flow passage in the steel-plate widthwise direction in a space surrounded by a lower surface of the upper header and an upper surface of the upper dividing wall are set to a value not less than 1.5 times a total inner-diameter cross-sectional area of the upper cooling water jetting nozzles.
Rail wheel set for a car movable on a rail of a rail system, comprising a rail rolling surface (41, 51) shaped to match the contour of a running surface of the rail and a bearing housing having a wheel suspension for connecting the rail wheel set to the car, wherein the rail wheel set comprises two running wheels (4, 5) rotatably mounted on the bearing housing and having a respective rail rolling surface (41, 51) and a respective ground rolling surface (42, 52), which can roll independently of one another on the running surface of the rail or on a floor, characterized in that the straight-line ground rolling surfaces (42, 52) of the respective running wheel (4, 5), are integrally formed on one edge of the rail rolling surfaces (41, 51).
Design method of an intraoral device, splint type, through the use of CAD software, where a file based on the intraoral scan or scan of the previous models of a patient is opened and the data of at least one arch (2, 3) of the patient in the form of a mesh or piece, where the design method is characterized by comprising the steps of: - segmenting the arch mesh (2, 3) into the different dental pieces by means of a thermal simulation by assigning heat points of a temperature to dental pieces and points of heat of another temperature to the dental pieces adjacent to those that comprise heat points of temperature, so that the adjacent dental pieces have different heat points (A, B), - defining at least some local vectors and centroids to each dental piece, which will define the directions of a support curve of a final contour of the intraoral device, - segmenting the arch mesh (2, 3) into the different dental pieces by means of a thermal simulation by assigning heat points of a temperature to dental pieces and points of heat of another temperature to the dental pieces adjacent to those that comprise heat points of temperature, so that the adjacent dental pieces have different heat points (A, B), - defining at least some local vectors and centroids to each dental piece, which will define the directions of a support curve of a final contour of the intraoral device,
A RF transmit system for a magnetic resonance examination system, comprising: at least one RF channel with an RF amplifier, at least two power supply devices (4, 5) wherein each of the power supply devices (4, 5) is configured to supply a voltage to the amplifier, wherein the power supply devices (4, 5) are different and configured to provide different voltages, a DC switch configured to switch the voltage supplied to the amplifier between the power supply devices (4, 5), to switch the amplifier's operating point between high peak-power at high drain voltage and low peak-power at low drain voltage, conductor paths (12, 13) between the DC switch and each of the power supply devices (4, 5), at least one capacitor bank (6, 7) which is connected to each of the conductor paths (12, 13), and which is in series with the DC switch, for supplying power to the RF amplifier as needed to compensate for a voltage drop at a time of operation of the RF amplifier, a controller configured to receive sensor data representative for parameters from an MR sequence controller, the controller being configured to switch the voltage based on the sensor data during an MR pulse sequence. at least one RF channel with an RF amplifier, at least two power supply devices (4, 5) wherein each of the power supply devices (4, 5) is configured to supply a voltage to the amplifier, wherein the power supply devices (4, 5) are different and configured to provide different voltages, a DC switch configured to switch the voltage supplied to the amplifier between the power supply devices (4, 5), to switch the amplifier's operating point between high peak-power at high drain voltage and low peak-power at low drain voltage, conductor paths (12, 13) between the DC switch and each of the power supply devices (4, 5), at least one capacitor bank (6, 7) which is connected to each of the conductor paths (12, 13), and which is in series with the DC switch, for supplying power to the RF amplifier as needed to compensate for a voltage drop at a time of operation of the RF amplifier, a controller configured to receive sensor data representative for parameters from an MR sequence controller, the controller being configured to switch the voltage based on the sensor data during an MR pulse sequence.
A mixture of inorganic nitrate salts, comprising LiNO 3, NaNO 3, KNO 3 and CsNO 3 wherein the LiNO 3 content ranges from 17.5% by weight to 21.6% by weight, the NaNO 3 content ranges from 10% by weight to 11% by weight, the KNO 3 content ranges from 27.7% by weight to 32.6% by weight, the CsNO 3 content ranges from 35.8% by weight to 43.8% by weight, including the interval bounds.
A multifocal ophthalmic lens, comprising: an ophthalmic lens having a base curvature corresponding to a base power; and a diffractive element, the diffractive element producing constructive interference in at least four consecutive diffractive orders corresponding a range of vision between near and distance vision, wherein the constructive interference produces a visibly perceptible near focus, a distance focus corresponding to the base power of the ophthalmic lens, and an intermediate focus between the near focus and the distance focus and wherein the at least four consecutive orders are (0, +1, +2, +3) and a diffraction efficiency of the +1 order is suppressed to less than ten percent such that the focussed image is not visibly perceptible. an ophthalmic lens having a base curvature corresponding to a base power; and a diffractive element, the diffractive element producing constructive interference in at least four consecutive diffractive orders corresponding a range of vision between near and distance vision, wherein the constructive interference produces a visibly perceptible near focus, a distance focus corresponding to the base power of the ophthalmic lens, and an intermediate focus between the near focus and the distance focus and wherein the at least four consecutive orders are (0, +1, +2, +3) and a diffraction efficiency of the +1 order is suppressed to less than ten percent such that the focussed image is not visibly perceptible.
A process for producing an organic compound, comprising: supplying a reaction substrate having at least one functional group which can react with chlorine and is selected from the group consisting of hydroxy group and an amino group and a chlorine-containing compound to a flow reactor together with a trialkyl amine having 9 to 40 carbon atoms and an organic solvent; and allowing the reaction substrate and the chlorine-containing compound to react with each other, wherein the chlorine-containing compound is at least one selected from the group consisting of compounds represented by the following formulae to and triphosgene: wherein R 1, R 2, and R 3 may be the same or different, and each represent an alkyl group having 1 to 20 carbon atoms and optionally having a substituent, an alkenyl group having 2 to 20 carbon atoms and optionally having a substituent, a cycloalkyl group having 3 to 20 carbon atoms and optionally having a substituent, an aralkyl group having 7 to 20 carbon atoms and optionally having a substituent, an aryl group having 6 to 20 carbon atoms and optionally having a substituent, or a heteroaryl group having 3 to 20 carbon atoms and optionally having a substituent; and R 1 and R 2, R 1 and R 3, and R 2 and R 3 may be bonded to each other. supplying a reaction substrate having at least one functional group which can react with chlorine and is selected from the group consisting of hydroxy group and an amino group and a chlorine-containing compound to a flow reactor together with a trialkyl amine having 9 to 40 carbon atoms and an organic solvent; and allowing the reaction substrate and the chlorine-containing compound to react with each other, wherein the chlorine-containing compound is at least one selected from the group consisting of compounds represented by the following formulae to and triphosgene: wherein R 1, R 2, and R 3 may be the same or different, and each represent an alkyl group having 1 to 20 carbon atoms and optionally having a substituent, an alkenyl group having 2 to 20 carbon atoms and optionally having a substituent, a cycloalkyl group having 3 to 20 carbon atoms and optionally having a substituent, an aralkyl group having 7 to 20 carbon atoms and optionally having a substituent, an aryl group having 6 to 20 carbon atoms and optionally having a substituent, or a heteroaryl group having 3 to 20 carbon atoms and optionally having a substituent; and R 1 and R 2, R 1 and R 3, and R 2 and R 3 may be bonded to each other.