mhurhangee/ep-ind-claims huggingface dataset:
A mounting frame for telecommunications equipment comprising: a main frame including a back plate and at least one set of module mounting arms extending from the back plate, the module mounting arms being configured to receive at least one telecommunications module; the mounting frame characterized in that it provides at least one mounting member fixed to the rear of the back plate, the at least one mounting member having at least one flexible clip extending from the back plate, opposite the module mounting arms, wherein the at least one flexible clip includes an arm having a projection extending from one side, and the least one mounting member includes a pair of tabs extending outwardly, beyond the back plate of the main frame, to sides of the mounting frame, and wherein a fixed surface is configured to be positioned between the projection and at least one tab of the pair of tabs. a main frame including a back plate and at least one set of module mounting arms extending from the back plate, the module mounting arms being configured to receive at least one telecommunications module; the mounting frame characterized in that it provides at least one mounting member fixed to the rear of the back plate, the at least one mounting member having at least one flexible clip extending from the back plate, opposite the module mounting arms, wherein the at least one flexible clip includes an arm having a projection extending from one side, and the least one mounting member includes a pair of tabs extending outwardly, beyond the back plate of the main frame, to sides of the mounting frame, and wherein a fixed surface is configured to be positioned between the projection and at least one tab of the pair of tabs.
Capacitative operating device for a household appliance having: - a capacitative sensor (2, 3, 4) with an electric capacitance, which can be changed as a result of an actuation of the sensor (2, 3, 4) by an operating person and/or the operating person approaching the sensor (2, 3, 4), - a processing circuit coupled to the sensor (2, 3, 4) for receiving an input signal ( U E) and for outputting an output signal ( U A) dependent on the capacitance of the sensor (2, 3, 4) as a result of the input signal ( U E), and - a control device coupled to the processing circuit for providing the input signal ( U E) for the processing circuit and for identifying the actuation of the sensor (2, 3, 4) and/or the sensor (2, 3, 4) being approached, as a function of the output signal ( U A) of the processing circuit, wherein subtraction means are provided, which are embodied to subtract an amplitude portion from an amplitude of the output signal ( U A) of the processing circuit and to output a subtraction signal ( U S) as a result of the subtraction, wherein the control device is designed to identify the actuation of the sensor (2, 3, 4) and/or the sensor (2, 3, 4) being approached on the basis of the subtraction signal ( U S), characterised in that the processing circuit is embodied to receive an input signal ( U E) with a plurality of pulses and on account of the input signal ( U E) to output an output signal ( U A) with a corresponding plurality of pulses, and the control device is designed to provide such an input signal ( U E) for the processing circuit, which comprises a predetermined number of pulses at predetermined time intervals. - a capacitative sensor (2, 3, 4) with an electric capacitance, which can be changed as a result of an actuation of the sensor (2, 3, 4) by an operating person and/or the operating person approaching the sensor (2, 3, 4), - a processing circuit coupled to the sensor (2, 3, 4) for receiving an input signal ( U E) and for outputting an output signal ( U A) dependent on the capacitance of the sensor (2, 3, 4) as a result of the input signal ( U E), and - a control device coupled to the processing circuit for providing the input signal ( U E) for the processing circuit and for identifying the actuation of the sensor (2, 3, 4) and/or the sensor (2, 3, 4) being approached, as a function of the output signal ( U A) of the processing circuit,
A state machine engine comprising: a finite state machine lattice comprising a plurality of elements, wherein the FSM lattice is configured to analyze data and to produce a result; a lattice programming and instruction control system used to configure the FSM lattice; an instruction buffer configured to provide a first instruction associated with an operation of the state machine engine to the lattice programming and instruction control system; and an instruction insertion register configured to provide a second instruction associated with the operation of the state machine engine to the lattice programming and instruction control system; wherein the instruction insertion register is configured to provide the second instruction in response to an indication of a temporary error that occurred during operation of the state machine engine; wherein the state machine engine is configured to interrupt provision of the first instruction from the instruction buffer in response to the indication of the error, wherein the second instruction is provided from the instruction insertion register in place of the first instruction; wherein the second instruction comprises an instruction configured to attempt to resolve the error and is selected from a set of instructions in the instruction insertion register based upon the indicated error; wherein the state machine engine is configured to resume provision of the first instruction from the instruction buffer in response to resolution of the error. a finite state machine lattice comprising a plurality of elements, wherein the FSM lattice is configured to analyze data and to produce a result; a lattice programming and instruction control system used to configure the FSM lattice; an instruction buffer configured to provide a first instruction associated with an operation of the state machine engine to the lattice programming and instruction control system; and an instruction insertion register configured to provide a second instruction associated with the operation of the state machine engine to the lattice programming and instruction control system; wherein the instruction insertion register is configured to provide the second instruction in response to an indication of a temporary error that occurred during operation of the state machine engine; wherein the state machine engine is configured to interrupt provision of the first instruction from the instruction buffer in response to the indication of the error, wherein the second instruction is provided from the instruction insertion register in place of the first instruction; wherein the second instruction comprises an instruction configured to attempt to resolve the error and is selected from a set of instructions in the instruction insertion register based upon the indicated error; wherein the state machine engine is configured to resume provision of the first instruction from the instruction buffer in response to resolution of the error.
Device for printing flat postal items, such as envelopes, padded envelopes, sleeves, cards, printed products or the like, fed one at a time to a printing unit of a franking machine, passing through the printing unit on at least one side in a frictionally driven manner and guided at one side edge in the conveying direction, consisting of a conveying device gripping the postal items at a front end in the conveying direction and forming a conveying plane of a conveying gap/channel of the conveying device by way of a guide plate arranged on the underside of the printing unit and a conveying unit disposed opposite the guide plate, wherein the conveying unit has at [east two endless traction means (18, 19) disposed at a distance alongside one another as viewed in the conveying direction of the postal items and each circulating about a common axis on deflecting rollers (16, 17), the tight side of the traction means directed towards the guide plate and the slack side of the traction means being guided on rollers (20, 21) mounted in a freely rotatable manner in opposing pairs at pivotable ends of one of a plurality of double levers of the conveying unit formed of angled lever arms (27, 28) and associated with the tight side or the slack side of the traction means (18, 19), and supported on the inner faces of the sides (24, 25) by means of spring force acting on the double levers and wherein the rollers supporting the tight side form a transport plane parallel to the conveying plane during the advance of the postal items.
A solid-state amplifier comprising: a first input configured to receive a first radio frequency signal from a first source external to the amplifier; a second input configured to receive a second RF signal from a second source external to the amplifier; a first chipset configured to amplify a first sub-band of the second RF signal, the first chipset comprising a pre-driver and a driver operatively coupled with an output of the pre-driver, wherein at least one of the pre-driver and the driver is configured as a gallium nitride (GaN)-based monolithic microwave integrated circuit (MMIC); a second chipset configured to amplify a second sub-band of the second RF signal, the second chipset comprising a pre-driver and a high power amplifier operatively coupled with an output of the pre-driver, wherein at least one of the pre-driver and the high power amplifier is configured as a gallium nitride (GaN)-based monolithic microwave integrated circuit (MMIC); a carrier coupled with at least one of the first chipset and the second chipset, wherein the carrier comprises a thermally conductive material; and a diamond layer disposed between the carrier and at least one semiconductor die of at least one of the first chipset and the second chipset, wherein: the carrier is coupled with the diamond layer via a first eutectic bonding layer; and the at least one semiconductor die is coupled with the diamond layer via a second eutectic bonding layer. a first input configured to receive a first radio frequency signal from a first source external to the amplifier; a second input configured to receive a second RF signal from a second source external to the amplifier; a first chipset configured to amplify a first sub-band of the second RF signal, the first chipset comprising a pre-driver and a driver operatively coupled with an output of the pre-driver, wherein at least one of the pre-driver and the driver is configured as a gallium nitride (GaN)-based monolithic microwave integrated circuit (MMIC); a second chipset configured to amplify a second sub-band of the second RF signal, the second chipset comprising a pre-driver and a high power amplifier operatively coupled with an output of the pre-driver, wherein at least one of the pre-driver and the high power amplifier is configured as a gallium nitride (GaN)-based monolithic microwave integrated circuit (MMIC); a carrier coupled with at least one of the first chipset and the second chipset, wherein the carrier comprises a thermally conductive material; and a diamond layer disposed between the carrier and at least one semiconductor die of at least one of the first chipset and the second chipset, wherein: the carrier is coupled with the diamond layer via a first eutectic bonding layer; and the at least one semiconductor die is coupled with the diamond layer via a second eutectic bonding layer. the carrier is coupled with the diamond layer via a first eutectic bonding layer; and the at least one semiconductor die is coupled with the diamond layer via a second eutectic bonding layer.
A separator system for steel chain links of steel energy chains wherein said steel chain links include at least two side members, at least one upper and one lower stud, said separator system comprising at least two horizontal separators and at least two vertical separators mutually independent, means (12, 14) for blocking said horizontal separators to said chain link and means (18, 3) for blocking said vertical separators to said chain link, characterized in that said blocking means (12,14) are so configured that the movement of only one element allows the contemporaneous removal of all said horizontal separators from the inner side of the chain, and said blocking means (18, 3) are so configured that the removal of only one element allows the contemporaneous removal of all said vertical separators, when the chain is operative with enclosed cables, pipes and/or hoses.
Method for ejecting a vessel, in particular a preform made of thermoplastic material, carried by a transporting device, in which the vessel is provided with a cylindrical neck having a vertical axis and comprising a free upper terminal edge called a mouth, the transporting device comprising: - at least one support which is movable along a path; - at least one mandrel for gripping the vessel by vertical engagement with the neck; - a lower ejection face which is mounted on the movable support, the gripping mandrel being mounted so as to slide vertically relative to the ejection face to allow the gripping mandrel to be extracted from the neck during the relative sliding thereof, by contact of the ejection face with an upper bearing face vertically opposite the neck, the gripping mandrel being slidable relative to the ejection face between a lower transport position in which the engagement of the gripping mandrel with the neck is permitted, and an upper ejection position of the vessel in which the ejection face prevents the engagement of the gripping mandrel with the neck by abutment against the bearing face of the neck; characterized in that the bearing face of the neck is formed by a shoulder face which protrudes radially outward relative to the mouth and which is arranged below the mouth in the vertical direction. - at least one support which is movable along a path; - at least one mandrel for gripping the vessel by vertical engagement with the neck; - a lower ejection face which is mounted on the movable support, the gripping mandrel being mounted so as to slide vertically relative to the ejection face to allow the gripping mandrel to be extracted from the neck during the relative sliding thereof, by contact of the ejection face with an upper bearing face vertically opposite the neck, the gripping mandrel being slidable relative to the ejection face between a lower transport position in which the engagement of the gripping mandrel with the neck is permitted, and an upper ejection position of the vessel in which the ejection face prevents the engagement of the gripping mandrel with the neck by abutment against the bearing face of the neck;
A supplemental device for attachment to an injection device including a dosage window covering a sleeve on which dose values are marked, the supplemental device comprising: a main body; an arrangement for supporting the main body of the supplemental device in a predetermined positional relationship with the injection device; a transparent protection window located at a surface of the main body that is aligned with the dosage window of the injection pen when in use; a sensor arrangement supported in the main body and having a sensor directed at the protection window; an illumination arrangement comprising one or more sources of light, each of the one or more sources of light being directed at the protection window; and a non-transmissive part (80, 85), wherein the non-transmissive part is located on an optical path between a first one of the one or more sources of light and a point on the dosage window at which reflection to the sensor would occur and is either provided on a surface of the protection window or is provided within the material forming the protection window. a main body; an arrangement for supporting the main body of the supplemental device in a predetermined positional relationship with the injection device; a transparent protection window located at a surface of the main body that is aligned with the dosage window of the injection pen when in use; a sensor arrangement supported in the main body and having a sensor directed at the protection window; an illumination arrangement comprising one or more sources of light, each of the one or more sources of light being directed at the protection window; and a non-transmissive part (80, 85), wherein the non-transmissive part is located on an optical path between a first one of the one or more sources of light and a point on the dosage window at which reflection to the sensor would occur and is either provided on a surface of the protection window or is provided within the material forming the protection window.
A method comprising the steps of: during a first iteration of a first decoder of a Turbo decoder for decoding convolutionally encoded data elements implementing a sliding window architecture, determining first values of a first path metric during a full trace across a trellis in the forward direction and storing the first values of the first path metrics aligning with decoder window end positions, and determining first values of a second path metric by performing a partial trace across the trellis in the reverse direction over a decoder window; during a second iteration of the first decoder, determining second values of the first path metric by retrieving the stored first values of the first path metrics and using the retrieved first values as initial values of the first path metric at appropriate decoder window start positions during a partial trace across the trellis in the forward direction, determining second values of the second path metric by performing a full trace across the trellis in the reverse direction and storing the second values of the second path metrics; storing values of the first path metric and the second path metric alternate with subsequent iterations, wherein values of the first path metric are stored when the values of the first path metric are determined by performing a full trace in the forward direction, and values of the second path metric are stored when the values of the second path metric are determined by performing a full trace in the reverse direction.
A method for constructing a base course without rolling compaction, which comprises: a step of obtaining a mixture by mixing an aggregate, an asphalt emulsion, and a cement, wherein a water content of the mixture is above an optimum water content of the aggregate, and wherein the optimum water content of the aggregate is a water content at which a dry density of the aggregate after compaction is maximized, as measured based on JIS A1210, and a step of spreading the mixture; wherein the method does not comprise a step of rolling compaction. a step of obtaining a mixture by mixing an aggregate, an asphalt emulsion, and a cement, wherein a water content of the mixture is above an optimum water content of the aggregate, and wherein the optimum water content of the aggregate is a water content at which a dry density of the aggregate after compaction is maximized, as measured based on JIS A1210, and a step of spreading the mixture;
A method implemented by a decoder, comprising: Receiving, by the decoder, a bitstream including a picture parameter set, PPS, including a single slice per subpicture flag; Determining, by the decoder, whether the single slice per subpicture flag has a first value or a second value, wherein the first value specifies that each subpicture referring to the PPS includes one and only one rectangular slice, and wherein the second value specifies that each subpicture referring to the PPS may include one or more rectangular slices; and Decoding, by the decoder, the one and only one rectangular slice when the single slice per subpicture flag has the first value and the one or more rectangular slices when the single slice per subpicture flag has the second value to obtain a decoded picture. Receiving, by the decoder, a bitstream including a picture parameter set, PPS, including a single slice per subpicture flag; Determining, by the decoder, whether the single slice per subpicture flag has a first value or a second value, wherein the first value specifies that each subpicture referring to the PPS includes one and only one rectangular slice, and wherein the second value specifies that each subpicture referring to the PPS may include one or more rectangular slices; and Decoding, by the decoder, the one and only one rectangular slice when the single slice per subpicture flag has the first value and the one or more rectangular slices when the single slice per subpicture flag has the second value to obtain a decoded picture.
A surroundings monitoring system for a work machine, comprising: a display device provided in a cabin of the work machine; an image capturing unit configured to capture an image of surroundings of the work machine; a display control part configured to generate a surrounding image of the work machine based on the captured image of the image capturing unit and to cause a monitoring image to be displayed on the display device, the monitoring image including a work machine image schematically representing the work machine and the surrounding image, the surrounding image being placed along a periphery of the work machine image in accordance with a relative positional relationship between the work machine and an imaging range of the image capturing unit; and a detecting part configured to detect an object including or other than a person, characterised in that the display control part is configured to cause a magnified monitoring image to be displayed on the display device, the magnified monitoring image magnifying a partial area (A1, A2, A3, A4) of the surrounding image in the monitoring image, the partial area (A1, A2, A3, A4) being centered on a position closer to the object included in the surrounding image than to the work machine image and including the object. a display device provided in a cabin of the work machine; an image capturing unit configured to capture an image of surroundings of the work machine; a display control part configured to generate a surrounding image of the work machine based on the captured image of the image capturing unit and to cause a monitoring image to be displayed on the display device, the monitoring image including a work machine image schematically representing the work machine and the surrounding image, the surrounding image being placed along a periphery of the work machine image in accordance with a relative positional relationship between the work machine and an imaging range of the image capturing unit; and a detecting part configured to detect an object including or other than a person, characterised in that the display control part is configured to cause a magnified monitoring image to be displayed on the display device, the magnified monitoring image magnifying a partial area (A1, A2, A3, A4) of the surrounding image in the monitoring image, the partial area (A1, A2, A3, A4) being centered on a position closer to the object included in the surrounding image than to the work machine image and including the object.
Cleaning agent for hard surfaces, in particular glass, characterized in that the cleaning agent contains at least one glycolipid biosurfactant and at least one solvent, the at least one solvent comprising ethylene glycol n-hexyl ether.