mhurhangee/ep-ind-claims huggingface dataset:
A method for cutting a glass sheet according to a program for cutting the sheet, comprising a plurality of first parallel cutting lines for separating one or more crosspieces from the sheet and, for at least a portion of said crosspieces, a plurality of further cutting lines of the related crosspieces; the method being carried out by a cutting machine comprising a cutting table having a sheet support surface and, aligned in a longitudinal direction, a cutting station housing a cutting bridge for cutting the sheet along said cutting lines and arranged beside a first longitudinal end of said support surface and a sheet positioning device adapted to be arranged at a second longitudinal end of the support surface opposite to said first end along said longitudinal direction; the method comprises the steps of arranging and keeping said positioning device at said second end, arranging a sheet to be cut on said support surface, advancing the sheet towards said positioning device in said longitudinal direction and positioning the sheet in a forward reference position by bringing the sheet into contact with said positioning device, the method being characterized by stably connecting said sheet to a motorised moving device and by keeping said sheet connected until all the cuts along said first cutting lines have been made, by retracting said sheet in said longitudinal direction towards said cutting station and said first end, by cutting said sheet along a first one of said first cutting lines thus forming a first crosspiece, by moving the first crosspiece into a temporary storage (33;51) arranged upstream of said first end in the advancing direction of the sheet, by retracting the remaining part of said sheet towards said cutting station and by repeating said cutting operation and moving operation into said temporary storage (33; 51) for at least a portion of the crosspieces provided by said cutting program.
A hyperpolarization probe head for magnetic resonance techniques, in which a sample can be subjected to multiple electromagnetic radiation, comprising an RF transducer for generating and detecting a RF signal, wherein said RF transducer comprises: - an electrically conducting element; - a grid polarizer comprising at least one grid formed by conducting grid elements which are at a distance from each other so that said grid polarizer is at least partially transparent to microwaves, said conducting grid elements and said conducting element being connected to a RF circuit of said probe through conducting elements, said radiofrequency circuit being configured to either generate a single-frequency or multi-frequency RF signal or to detect a single-frequency or multifrequency RF signal wherein a space is defined between said grid polarizer and said conducting element of said RF transducer and in which a sample can be held, said grid being fully or partially connected to said conducting element, thus allowing together controlled RF current paths therethrough and a substantially uniform RF magnetic field in said space. - an electrically conducting element; - a grid polarizer comprising at least one grid formed by conducting grid elements which are at a distance from each other so that said grid polarizer is at least partially transparent to microwaves, said conducting grid elements and said conducting element being connected to a RF circuit of said probe through conducting elements, said radiofrequency circuit being configured to either generate a single-frequency or multi-frequency RF signal or to detect a single-frequency or multifrequency RF signal
A wireless communication system providing directional transmission for relaying data between multiple communication devices, comprising: at least one central radio coordinator node on said system; multiple radio nodes on said system; wherein each said radio node, of said multiple radio nodes, provides either a first level (Cat A) or second level (Cat B) of signal processing capability for communicating between each of said radio nodes, wherein radio nodes of the first level support multiple-input-multiple-output (MIMO) communications, wherein radio nodes of the second level do not support MIMO communications, and have a lower antenna gain than radio nodes of the first level; wherein said central coordinator radio node performs selection of one of said plurality of radio nodes as a relay node between the central coordinator radio node and another of said radio nodes in said system based on their provided first or second level of signal processing capability and on communication characteristics between said multiple radio nodes and said central radio coordinator; wherein data communication is performed between the central coordinator radio node configured for MIMO communications and two or more radio nodes through the relay node in response to making a MIMO hop from said central coordinator radio node to the relay node, followed by a multi-user MIMO hop from the relay node to two or more radio nodes as clients. at least one central radio coordinator node on said system; multiple radio nodes on said system; wherein each said radio node, of said multiple radio nodes, provides either a first level (Cat A) or second level (Cat B) of signal processing capability for communicating between each of said radio nodes, wherein radio nodes of the first level support multiple-input-multiple-output (MIMO) communications, wherein radio nodes of the second level do not support MIMO communications, and have a lower antenna gain than radio nodes of the first level; wherein said central coordinator radio node performs selection of one of said plurality of radio nodes as a relay node between the central coordinator radio node and another of said radio nodes in said system based on their provided first or second level of signal processing capability and on communication characteristics between said multiple radio nodes and said central radio coordinator; wherein data communication is performed between the central coordinator radio node configured for MIMO communications and two or more radio nodes through the relay node in response to making a MIMO hop from said central coordinator radio node to the relay node, followed by a multi-user MIMO hop from the relay node to two or more radio nodes as clients.
A cartridge for detecting an analyte in a liquid sample, comprising a fluid circuit, wherein the fluid circuit includes a first zone having an inlet, a micro fluidic channel including a detection region in fluid communication with the first zone, a second zone in fluid communication with the detection region, wherein the second zone is at least partially compressible so that an inner diameter of the second zone can be reduced to zero, wherein the inlet and the second zone are configured to be tightly connected together to form said closed fluid circuit.
An isolation module, comprising: a step-up autotransformer comprising a first winding (W P) and a second winding (W S) that are electrically coupled in series at a center node to form a series coupled windings; a first port configured to couple an antenna to a first end node of the series coupled windings; a second port configured to couple a balancing network to a second end node of the series coupled windings; a third port configured to couple a transmit path or an output of a power amplifier to the center node; and a fourth port configured to couple a differential receive path or an input of a low-noise amplifier across the first end node and the second end node, wherein the third port is isolated from the fourth port by electrical balance in terms of balancing network being configured to provide an impedance equal to that of antenna. a step-up autotransformer comprising a first winding (W P) and a second winding (W S) that are electrically coupled in series at a center node to form a series coupled windings; a first port configured to couple an antenna to a first end node of the series coupled windings; a second port configured to couple a balancing network to a second end node of the series coupled windings; a third port configured to couple a transmit path or an output of a power amplifier to the center node; and a fourth port configured to couple a differential receive path or an input of a low-noise amplifier across the first end node and the second end node, wherein the third port is isolated from the fourth port by electrical balance in terms of balancing network being configured to provide an impedance equal to that of antenna.
An oral cleaning device, comprising: a handle portion comprising a plurality of indicia and a plurality of illuminating elements; and a user interface assembly, the user interface assembly comprising an interface panel and a baffle assembly, the baffle assembly comprising a plurality of baffle sections wherein each of the plurality of baffle sections corresponds with a respective one of the plurality of illuminating elements and a respective one of the plurality of indicia, and further wherein each of the plurality of baffle sections comprises a cover portion covering the baffle section and positioned between the respective one of the plurality of illuminating elements and the respective one of the plurality of indicia, the cover portion being composed of a material that allows light from the respective one of the plurality of illuminating elements to pass through, but prevents diffusion of the light to adjacent baffle sections; wherein the user interface assembly is configured such that when the oral cleaning device is powered off the interface panel is blank, and when the oral cleaning device is powered on, at least one of the plurality of indicia on the panel corresponding to a selected oral cleaning device mode is illuminated. a handle portion comprising a plurality of indicia and a plurality of illuminating elements; and a user interface assembly, the user interface assembly comprising an interface panel and a baffle assembly, the baffle assembly comprising a plurality of baffle sections wherein each of the plurality of baffle sections corresponds with a respective one of the plurality of illuminating elements and a respective one of the plurality of indicia, and further wherein each of the plurality of baffle sections comprises a cover portion covering the baffle section and positioned between the respective one of the plurality of illuminating elements and the respective one of the plurality of indicia, the cover portion being composed of a material that allows light from the respective one of the plurality of illuminating elements to pass through, but prevents diffusion of the light to adjacent baffle sections; wherein the user interface assembly is configured such that when the oral cleaning device is powered off the interface panel is blank, and when the oral cleaning device is powered on, at least one of the plurality of indicia on the panel corresponding to a selected oral cleaning device mode is illuminated.
Wound covering with a first web-type element forming a first boundary surface and a second web-type element forming a second boundary surface facing away from the first boundary surface and running approximately parallel thereto and connected to the first web-shaped element, wherein at least one drainage space is formed between the first inner boundary surface of the first web-type element facing away from the first boundary surface and a second inner boundary surface of the second web-type element facing away from the second boundary surface, the depth of which drainage space in a depth direction extending perpendicularly to the boundary surfaces (12, 22) has a capillary effect on body fluids, in particular exudates, received in the drainage space, wherein at least one of the web-type elements (10, 20) has an opening enabling the passage of body fluids into the drainage space, which opening is formed by a channel (16, 26) extending from one web-type element (10, 20) in the direction of the opposite inner boundary surface (14, 24) of the other web-type element (10, 20) and opening out into the drainage space, the channel wall of which channel (16, 26) is preferably formed in one piece with the web-type element (10, 20), in particular by perforation of the web-type element (10, 20), wherein the orifices of the openings arranged in one web-type element (10, 20) are arranged in a projection along the depth direction between the orifices of the openings arranged in the other web-type element (10, 20), wherein at least one channel (16, 26) extends in the depth direction over 50% or more of the entire depth of the drainage space, characterised in that the orifice surface of the individual openings facing the drainage space in a plane running perpendicularly to the depth direction is 5 mm 2 or less, in particular 4 mm 2 or less, particularly preferably 3 mm 2 or less, the web-type elements (10, 20) are connected to one another via punctiform fastening regions preferably formed in a grid arrangement and at least one web-type element (10, 20) has a preferably perforated plastic film.
A heat pump device comprising: a compressor having a compression mechanism for compressing a refrigerant; a motor that actuates the compression mechanism provided in the compressor; an inverter that applies a predetermined voltage to the motor; and an inverter control unit that causes the inverter to generate a high-frequency AC voltage having a de-energized section in which the voltage applied from the inverter to the motor is zero between a section in which the voltage is positive and a section in which the voltage is negative, characterized in that the inverter control unit includes: a current-value detection unit that detects a value of a current flowing to the inverter in a detection section from immediately before a start of the de-energized section to immediately after an end of the de-energized section from a current detection unit within the inverter, the value being a current value showing a current stable portion in the de-energized section; and a high-frequency-voltage generation unit that causes the inverter to generate the high-frequency AC voltage according to a power supply voltage value detected in the inverter and a current value detected by the current-value detection unit when the motor needs to be heated. a compressor having a compression mechanism for compressing a refrigerant; a motor that actuates the compression mechanism provided in the compressor; an inverter that applies a predetermined voltage to the motor; and an inverter control unit that causes the inverter to generate a high-frequency AC voltage having a de-energized section in which the voltage applied from the inverter to the motor is zero between a section in which the voltage is positive and a section in which the voltage is negative, characterized in that the inverter control unit includes: a current-value detection unit that detects a value of a current flowing to the inverter in a detection section from immediately before a start of the de-energized section to immediately after an end of the de-energized section from a current detection unit within the inverter, the value being a current value showing a current stable portion in the de-energized section; and a high-frequency-voltage generation unit that causes the inverter to generate the high-frequency AC voltage according to a power supply voltage value detected in the inverter and a current value detected by the current-value detection unit when the motor needs to be heated. a current-value detection unit that detects a value of a current flowing to the inverter in a detection section from immediately before a start of the de-energized section to immediately after an end of the de-energized section from a current detection unit within the inverter, the value being a current value showing a current stable portion in the de-energized section; and a high-frequency-voltage generation unit that causes the inverter to generate the high-frequency AC voltage according to a power supply voltage value detected in the inverter and a current value detected by the current-value detection unit when the motor needs to be heated.
A disc and blade arrangement for a gas turbine engine, the disc and blade arrangement comprising: a disc having a groove provided on the periphery of the disc; and a blade mounted to the disc, the blade having a root that is received in the groove of the disc and retained therein, wherein the blade root includes a planar surface defined by a blade pressure flank and a curved surface is positioned adjacent the planar surface of the blade root, and the disc groove includes a planar surface defined by a disc pressure flank and a curved surface is positioned adjacent the planar surface of the groove, and wherein the planar surface of the blade root and the planar surface of the groove are arranged such that under the condition of the blade experiencing a radially outward force during operation, the planar surface of the blade root contacts the corresponding planar surface of the disc groove and a gap is provided between the curved surface of the groove and the curved surface of the blade root, and wherein the planar surface of the groove is provided at a position offset radially inward from the curved surface of the groove. a disc having a groove provided on the periphery of the disc; and a blade mounted to the disc, the blade having a root that is received in the groove of the disc and retained therein, wherein the blade root includes a planar surface defined by a blade pressure flank and a curved surface is positioned adjacent the planar surface of the blade root, and the disc groove includes a planar surface defined by a disc pressure flank and a curved surface is positioned adjacent the planar surface of the groove, and wherein the planar surface of the blade root and the planar surface of the groove are arranged such that under the condition of the blade experiencing a radially outward force during operation, the planar surface of the blade root contacts the corresponding planar surface of the disc groove and a gap is provided between the curved surface of the groove and the curved surface of the blade root, and wherein the planar surface of the groove is provided at a position offset radially inward from the curved surface of the groove.
A compound of the formula: wherein R is methyl, a pharmaceutically acceptable salt, or a solvate thereof for use in the treatment of spinocerebellar ataxia or multiple system atrophy. wherein R is methyl, a pharmaceutically acceptable salt, or a solvate thereof for use in the treatment of spinocerebellar ataxia or multiple system atrophy.
Method for determining the position angle of a rotor of an electric synchronous machine, having the steps: generating in each case at least one electric voltage pulse with predetermined electrical angles in a stator-fixed coordinate system, referred to as a stator of the electric synchronous machine, when the rotor of the synchronous machine is stationary; measuring in each case at least one respective electrical current value arising from the generated electrical voltage pulses; storing a current signal profile of the measured current values in accordance with the predetermined electrical angles; generating a mean-value-free current signal profile by shifting the stored current signal profile or the measured current values; calculating an integral function of the mean-value-free signal current profile; and determining the position angle of the rotor on the basis of the calculated integral function, characterized in that the determination of the position angle of the rotor comprises the steps: determining a mean value of the calculated integral function; and determining a first angle value at which the calculated integral function intersects the determined mean value of the calculated integral function; wherein the determination of the position angle of the rotor is carried out on the basis of the determined first angle value. generating in each case at least one electric voltage pulse with predetermined electrical angles in a stator-fixed coordinate system, referred to as a stator of the electric synchronous machine, when the rotor of the synchronous machine is stationary; measuring in each case at least one respective electrical current value arising from the generated electrical voltage pulses; storing a current signal profile of the measured current values in accordance with the predetermined electrical angles; generating a mean-value-free current signal profile by shifting the stored current signal profile or the measured current values; calculating an integral function of the mean-value-free signal current profile; and determining the position angle of the rotor on the basis of the calculated integral function, determining a mean value of the calculated integral function; and determining a first angle value at which the calculated integral function intersects the determined mean value of the calculated integral function; wherein the determination of the position angle of the rotor is carried out on the basis of the determined first angle value.
A display device comprising: a substrate including a display area and a non-display area; a light emitting element disposed in the display area and including a first electrode, a second electrode, and an emission layer between the first electrode and the second electrode; an encapsulation layer configured to cover the display area and encapsulate the light emitting element; a power line disposed in the non-display area; and a connecting member configured to electrically connect the power line and the second electrode, wherein a first edge of the encapsulation layer in the non-display area is disposed to coincide with an edge of the power line or is disposed closer to the display area than the edge of the power line, and wherein the encapsulation layer includes a first inorganic layer, a second inorganic layer, and an organic layer disposed between the first inorganic layer and the second inorganic layer, and the first edge of the encapsulation layer corresponds to edges of the first inorganic layer and the second inorganic layer and the encapsulation layer is formed such that the edges of the first and the second inorganic layer (391, 393) substantially coincide with each other, characterized in that the first inorganic layer is configured to contact both the power line and the connecting member in a region where the encapsulation layer overlaps the power line. a substrate including a display area and a non-display area; a light emitting element disposed in the display area and including a first electrode, a second electrode, and an emission layer between the first electrode and the second electrode; an encapsulation layer configured to cover the display area and encapsulate the light emitting element; a power line disposed in the non-display area; and a connecting member configured to electrically connect the power line and the second electrode, wherein a first edge of the encapsulation layer in the non-display area is disposed to coincide with an edge of the power line or is disposed closer to the display area than the edge of the power line, and wherein the encapsulation layer includes a first inorganic layer, a second inorganic layer, and an organic layer disposed between the first inorganic layer and the second inorganic layer, and the first edge of the encapsulation layer corresponds to edges of the first inorganic layer and the second inorganic layer and the encapsulation layer is formed such that the edges of the first and the second inorganic layer (391, 393) substantially coincide with each other, characterized in that the first inorganic layer is configured to contact both the power line and the connecting member in a region where the encapsulation layer overlaps the power line.