mhurhangee/ep-ind-claims huggingface dataset:
High-speed rotating atomizer operating with internal charging with: a) an outer housing; b) a rotatably mounted bell-cup; c) a turbine arranged in a turbine housing, which causes the bell-cup to rotate; d) a high-voltage circuit, to which a low voltage can be supplied and which generates a high voltage at an output that has been electrically connected to the bell-cup, to the turbine and to the turbine housing, and comprises: da) a high-voltage cascade; db) a resistor which is situated in a current path situated between the turbine housing and ground and at which a first measuring voltage can be tapped which is a measure for the voltage at the turbine housing; characterised in that e) a further resistor is provided which is likewise situated in a current path leading from the turbine housing to ground and at which a second measuring voltage can be tapped which is a measure for the voltage at the turbine housing; f) a control device is provided to which the two measuring voltages can be supplied and which emits an interference signal when a maximum value of the difference of these measuring voltages is exceeded. a) an outer housing; b) a rotatably mounted bell-cup; c) a turbine arranged in a turbine housing, which causes the bell-cup to rotate; d) a high-voltage circuit, to which a low voltage can be supplied and which generates a high voltage at an output that has been electrically connected to the bell-cup, to the turbine and to the turbine housing, and comprises: da) a high-voltage cascade; db) a resistor which is situated in a current path situated between the turbine housing and ground and at which a first measuring voltage can be tapped which is a measure for the voltage at the turbine housing; da) a high-voltage cascade; db) a resistor which is situated in a current path situated between the turbine housing and ground and at which a first measuring voltage can be tapped which is a measure for the voltage at the turbine housing; e) a further resistor is provided which is likewise situated in a current path leading from the turbine housing to ground and at which a second measuring voltage can be tapped which is a measure for the voltage at the turbine housing; f) a control device is provided to which the two measuring voltages can be supplied and which emits an interference signal when a maximum value of the difference of these measuring voltages is exceeded.
Time measurement circuit for an incoming signal, in particular for use as a part of a receiving circuit of a distance meter and in this case for measuring a point in time for a returning light pulse, comprising • a comparator stage for generating a comparator output signal depending on a fulfillment of a criterion by the incoming signal, in particular wherein exceeding or falling below a threshold value is defined as the criterion, • a digitization stage for sampling, which is performed at a defined sampling rate, of an input signal fed to the digitization stage and converting it into digital data containing sampled values for the input signal, and • an evaluation unit for determining a chronological location for the incoming signal by evaluating the digital data, characterized in that • a signal generating stage (14, 15) is interconnected between the comparator stage and the digitization stage, which is designed to generate, in a chronologically fixed manner dependent on the content of the comparator output signal, a shape signal, which is designed for post-sampling interpolation ability, of known shape and in particular known amplitude, wherein the shape signal is fed to the digitization stage as the input signal, and • the evaluation unit is designed to determine a time for the incoming signal while using a chronological interpolation of the values contained in the digital data and the known shape of the shape signal. • a comparator stage for generating a comparator output signal depending on a fulfillment of a criterion by the incoming signal, in particular wherein exceeding or falling below a threshold value is defined as the criterion, • a digitization stage for sampling, which is performed at a defined sampling rate, of an input signal fed to the digitization stage and converting it into digital data containing sampled values for the input signal, and • an evaluation unit for determining a chronological location for the incoming signal by evaluating the digital data, • a signal generating stage (14, 15) is interconnected between the comparator stage and the digitization stage, which is designed to generate, in a chronologically fixed manner dependent on the content of the comparator output signal, a shape signal, which is designed for post-sampling interpolation ability, of known shape and in particular known amplitude, wherein the shape signal is fed to the digitization stage as the input signal, and • the evaluation unit is designed to determine a time for the incoming signal while using a chronological interpolation of the values contained in the digital data and the known shape of the shape signal.
An information processing apparatus, comprising: a data acquisition unit configured to acquire solar radiation. amount data indicating an amount of solar radiation to a greenhouse measured by a solar radiation amount sensor and relative humidity data indicating a relative humidity in the greenhouse; and an estimation unit, characterised in that the estimation unit is configured to estimate a dew condensation state in a cultivated product in the greenhouse based on the solar radiation amount data and the relative humidity data. a data acquisition unit configured to acquire solar radiation. amount data indicating an amount of solar radiation to a greenhouse measured by a solar radiation amount sensor and relative humidity data indicating a relative humidity in the greenhouse; and an estimation unit, characterised in that the estimation unit is configured to estimate a dew condensation state in a cultivated product in the greenhouse based on the solar radiation amount data and the relative humidity data.
A combustion pressure sensor for an internal combustion engine comprising: a sensing element sensitive to a physical load applied thereto to produce a signal as a function of the applied load; a bendable member placed in abutment with said sensing element, said bendable member being bent upon application of a combustion pressure in an internal combustion engine to apply the physical load to said sensing element; and a hollow cylindrical housing having a length, said housing being designed to have a combustion chamber side end facing a combustion chamber of an internal combustion engine, wherein the bendable member has a hole formed through a center thereof for receiving a load transmitting member and also has a tapered wall formed thereon for making a line-to-line contact with the load transmitting member; wherein the load transmitting member includes a piston which has a round surface placed in the line-to-line contact with the tapered wall of the bendable member; and wherein the load transmitting member is disposed within said housing, said load transmitting member having a length with an end portion extending outside the combustion chamber side end of said housing, said load transmitting member working to transmit a combustion pressure within the combustion chamber of the engine to the bendable member of said load detector as the physical load. a sensing element sensitive to a physical load applied thereto to produce a signal as a function of the applied load; a bendable member placed in abutment with said sensing element, said bendable member being bent upon application of a combustion pressure in an internal combustion engine to apply the physical load to said sensing element; and a hollow cylindrical housing having a length, said housing being designed to have a combustion chamber side end facing a combustion chamber of an internal combustion engine, wherein the bendable member has a hole formed through a center thereof for receiving a load transmitting member and also has a tapered wall formed thereon for making a line-to-line contact with the load transmitting member; wherein the load transmitting member includes a piston which has a round surface placed in the line-to-line contact with the tapered wall of the bendable member; and wherein the load transmitting member is disposed within said housing, said load transmitting member having a length with an end portion extending outside the combustion chamber side end of said housing, said load transmitting member working to transmit a combustion pressure within the combustion chamber of the engine to the bendable member of said load detector as the physical load.
A burner assembly (9; 90; 900) of a gas turbine comprising: - a tubular body defining a flow path for a hot gas of combustion during the turbine operation; - an aperture for a fuel lance having an edge; - a wearing ring, of a sacrificial material, configured to correspond to the edge of the aperture; - a contacting leg (15A, 15B) extending from the wearing ring along said tubular body; - a pre-tension system (19, 21; 119, 121; 219, 221) configured to contact the contacting leg (15A, 15B) to provide a pre-tension force on the ring against the tubular body, wherein said pre-tension system (19; 21) comprises a pre-tension block (19A, 21A; 119A, 121A; 219A, 221A) anchored on said tubular body in such a way to form a gap through which said contacting leg (15A, 15B) is positioned, wherein said pre-tension block (19A, 21A) comprises a pre-tension surface (19S; 21S) arranged to contact the contacting leg (15A; 15B) to provide said pre-tension force, and wherein a first intermediate element (19E, 21E) is located between the pre-tension block (19A; 21B) and said contacting leg (15A, 15B), wherein said pre-tension block (119A, 121A; 219A, 221A) comprises a pre-tension component (119T, 121T; 219T, 221T; 319T; 419T; 519T; 619T) configured to contact said contacting leg (15A, 15B) to provide said pre-tension force, and wherein said pre-tension component is a pre-tension bolt (219T, 221T; 319T; 419T; 519T; 619T) screwed into said pre-tension block (219A, 221A), wherein a locking element (219L; 221L) is additionally mounted into said pre-tension block (219A, 221A); said pre-tension bolt (219T, 221T; 319T; 419T; 519T; 619T) comprising a shaped head able to engage with said locking element (219L; 221L). - a tubular body defining a flow path for a hot gas of combustion during the turbine operation; - an aperture for a fuel lance having an edge; - a wearing ring, of a sacrificial material, configured to correspond to the edge of the aperture; - a contacting leg (15A, 15B) extending from the wearing ring along said tubular body; - a pre-tension system (19, 21; 119, 121; 219, 221) configured to contact the contacting leg (15A, 15B) to provide a pre-tension force on the ring against the tubular body,
A machine-implemented method, comprising: receiving at a video transcoder a compressed video data frame with a first presentation timestamp; decoding a compressed video data frame in the video transcoder creating a decoded video data frame; embedding the first presentation timestamp in a vertical blanking interval of the decoded video data frame; re-encoding the decoded video data frame in the video transcoder creating a transcoded video data frame; comparing the first presentation timestamp with a second presentation timestamp to determine a timestamp offset, wherein the second presentation timestamp is associated with the transcoded video data frame; and presenting audio data associated with the compressed video frame in synchronization with the transcoded video data frame based on the determined timestamp offset. receiving at a video transcoder a compressed video data frame with a first presentation timestamp; decoding a compressed video data frame in the video transcoder creating a decoded video data frame; embedding the first presentation timestamp in a vertical blanking interval of the decoded video data frame; re-encoding the decoded video data frame in the video transcoder creating a transcoded video data frame; comparing the first presentation timestamp with a second presentation timestamp to determine a timestamp offset, wherein the second presentation timestamp is associated with the transcoded video data frame; and presenting audio data associated with the compressed video frame in synchronization with the transcoded video data frame based on the determined timestamp offset.
A compensating balance spring for a thermally compensated sprung balance resonator comprising a core (9a, 9b, 9c, 9d, 9e, 9f) made of several non-metallic materials (11a, 11b, 13b, 15b, 11c, 17c, 19c, 11d, 13d, 15d, 17d, 19d, 11e, 13e, 15e, 17e, 19e, 11f, 21f) comprising quartz, characterised in that the core (9a, 9b, 9c, 9d, 9e, 9f) is partially coated with at least one layer which is resistant and impermeable to moisture and comprises chromium or tantalum so as to render the compensating balance spring less sensitive to climatic variations, said at least one layer which is resistant and impermeable to moisture is at least partially formed on an oxidized coating comprised between the core and said at least one layer.
Partial discharge signals processing method comprising: setting a first discrimination criterion among the following criteria: acquisition, noise filtering, classification of partial discharge signals; providing a plurality of pulse waveforms associated with detected partial discharge waveform signals; defining at least one first reference pulse waveform having characteristics depending on the set first criterion; providing a neural network module (800, 900) having a single output port (OP 1) configured to provide a similarity index; performing a first training of the neural network module (800; 900) by providing a reference group of samples of said at least one first reference pulse waveform to the neural network module to produce the similarity index selectively assuming a first value and a second value representative of a similarity/non similarity of an input pulse waveform with the at least one first reference pulse waveform, respectively; comparing said plurality of pulse waveforms with the at least one first reference pulse waveform by providing first groups of samples of said plurality of pulse waveforms to the neural network module to obtain first similarity index results at the single output port; memorizing/rejecting (1008; 1009) each compared pulse waveform on the basis of the obtained first similarity index results and on the first discrimination criterion. setting a first discrimination criterion among the following criteria: acquisition, noise filtering, classification of partial discharge signals; providing a plurality of pulse waveforms associated with detected partial discharge waveform signals; defining at least one first reference pulse waveform having characteristics depending on the set first criterion; providing a neural network module (800, 900) having a single output port (OP 1) configured to provide a similarity index; performing a first training of the neural network module (800; 900) by providing a reference group of samples of said at least one first reference pulse waveform to the neural network module to produce the similarity index selectively assuming a first value and a second value representative of a similarity/non similarity of an input pulse waveform with the at least one first reference pulse waveform, respectively; comparing said plurality of pulse waveforms with the at least one first reference pulse waveform by providing first groups of samples of said plurality of pulse waveforms to the neural network module to obtain first similarity index results at the single output port; memorizing/rejecting (1008; 1009) each compared pulse waveform on the basis of the obtained first similarity index results and on the first discrimination criterion.
Device for connecting two conductive elements (2, 3) of a conductor rail comprising a sliding contact surface, the device comprising: - two connection tabs (2a, 3a) formed by one end of each of the two conductive elements (2, 3), the connection tabs (2a, 3a) being arranged to be placed in respective parallel planes and offset with respect to the sliding contact surface of the rail, - a junction piece of the two connection tabs (2a, 3a) comprising at least one contact surface placed level with the sliding contact surface of the conductors (2, 3), characterised in that the junction piece comprises a jumper structure which positions its legs on either side of the connection tabs (2a, 3a) in contact so as to grip the connection tabs (2a, 3a) of the conductive elements, while making an electrical connection between at least the connection tab (2a, 3a) of a conductive element (2, 3) and the contact surface of the junction piece placed level with the sliding contact surface of the conductors. - two connection tabs (2a, 3a) formed by one end of each of the two conductive elements (2, 3), the connection tabs (2a, 3a) being arranged to be placed in respective parallel planes and offset with respect to the sliding contact surface of the rail, - a junction piece of the two connection tabs (2a, 3a) comprising at least one contact surface placed level with the sliding contact surface of the conductors (2, 3), characterised in that the junction piece comprises a jumper structure which positions its legs on either side of the connection tabs (2a, 3a) in contact so as to grip the connection tabs (2a, 3a) of the conductive elements, while making an electrical connection between at least the connection tab (2a, 3a) of a conductive element (2, 3) and the contact surface of the junction piece placed level with the sliding contact surface of the conductors.
Solid-bowl screw centrifuge with a centrifuge drum which can rotate about a longitudinal axis during operation, on the front side of which at least one discharge opening for discharging clarified product from the centrifuge drum is formed, being provided with a weir edge delimiting the discharge opening towards the outside radially, and an energy recovery device (28; 42) for recovering energy from the clarified discharged product is formed, being designed as a discharge pipe through which the clarified discharged product flows, characterised in that the energy recovery device designed as the discharge pipe through which the clarified discharged product flows is arranged on the outside in front of the discharge opening having the weir edge.
A low cost lead-free dezincification-resistant brass alloy for casting, wherein the brass alloy contains i) 63.89wt.% of Cu, 0.13wt.% of Pb, 0.24wt.% of Al, 0.10wt.% of As, 0.27wt.% of Sn, 0.13wt.% of Si, 0.06wt.% of P, 15ppm of B, with the balance being Zn and unavoidable impurities; or ii) 62.4wt.% of Cu, 0.12wt.% of Pb, 0.19wt.% of Al, 0.12wt.% of As, with the balance being Zn and unavoidable impurities; or iii) 62.98wt.% of Cu, 0.16wt.% of Pb, 0.27wt.% of Al, 0.09wt.% of As, 12ppm of B, with the balance being Zn and unavoidable impurities; or iv) 63.10wt.% of Cu, 0.19wt.% of Pb, 0.24wt.% of Al, 0.11wt.% of As, 13ppm of B, with the balance being Zn and unavoidable impurities; or v) 64.15wt.% of Cu, 0.12wt.% of Pb, 0.05wt.% of Al, 0.09wt.% of As, 0.16 wt.% of Ni, 5ppm of B, with the balance being Zn and unavoidable impurities; or vi) 61.95wt.% of Cu, 0.11wt.% of Pb, 0.30wt.% of Al, 0.12wt.% of As, 0.2wt.% of Sn, 7ppm of B, with the balance being Zn and unavoidable impurities; or vii) 62.76wt.% of Cu, 0.12wt.% of Pb, 0.28wt.% of Al, 0.11wt.% of As, 0.11wt.% of Sn, 10ppm of B, with the balance being Zn and unavoidable impurities; or viii) 62.86wt.% of Cu, 0.25wt.% of Pb, 0.10wt.% of Al, 0.09wt.% of As, 0.19wt.% of Si, 0.04wt.% of P, 0.39 wt.% Sn, 9ppm of B, with the balance being Zn and unavoidable impurities. i) 63.89wt.% of Cu, 0.13wt.% of Pb, 0.24wt.% of Al, 0.10wt.% of As, 0.27wt.% of Sn, 0.13wt.% of Si, 0.06wt.% of P, 15ppm of B, with the balance being Zn and unavoidable impurities; or ii) 62.4wt.% of Cu, 0.12wt.% of Pb, 0.19wt.% of Al, 0.12wt.% of As, with the balance being Zn and unavoidable impurities; or iii) 62.98wt.% of Cu, 0.16wt.% of Pb, 0.27wt.% of Al, 0.09wt.% of As, 12ppm of B, with the balance being Zn and unavoidable impurities; or iv) 63.10wt.% of Cu, 0.19wt.% of Pb, 0.24wt.% of Al, 0.11wt.% of As, 13ppm of B, with the balance being Zn and unavoidable impurities; or v) 64.15wt.% of Cu, 0.12wt.% of Pb, 0.05wt.% of Al, 0.09wt.% of As, 0.16 wt.% of Ni, 5ppm of B, with the balance being Zn and unavoidable impurities; or vi) 61.95wt.% of Cu, 0.11wt.% of Pb, 0.30wt.% of Al, 0.12wt.% of As, 0.2wt.% of Sn, 7ppm of B, with the balance being Zn and unavoidable impurities; or vii) 62.76wt.% of Cu, 0.12wt.% of Pb, 0.28wt.% of Al, 0.11wt.% of As, 0.11wt.% of Sn, 10ppm of B, with the balance being Zn and unavoidable impurities; or viii) 62.86wt.% of Cu, 0.25wt.% of Pb, 0.10wt.% of Al, 0.09wt.% of As, 0.19wt.% of Si, 0.04wt.% of P, 0.39 wt.% Sn, 9ppm of B, with the balance being Zn and unavoidable impurities.
A polymer comprising: a monomer unit represented by general formula, shown below, where, in general formula, R 1 is a chlorine atom, R 2 is an unsubstituted alkyl group or a fluorine atom-substituted alkyl group, and R 3 and R 4 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different; and a monomer unit represented by general formula, shown below, where, in general formula, R 5, R 6, R 8, and R 9 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different, R 7 is a hydrogen atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group, p and q are each an integer of at least 0 and not more than 5, and p + q = 5, wherein at least one of the monomer unit and the monomer unit includes at least one fluorine atom; the polymer has a weight average molecular weight of at least 10,000 and not more than 150,000; and the polymer has a molecular weight distribution (Mw/Mn) of at least 1.30 and not more than 1.60. a monomer unit represented by general formula, shown below, where, in general formula, R 1 is a chlorine atom, R 2 is an unsubstituted alkyl group or a fluorine atom-substituted alkyl group, and R 3 and R 4 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different; and a monomer unit represented by general formula, shown below, where, in general formula, R 5, R 6, R 8, and R 9 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different, R 7 is a hydrogen atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group, p and q are each an integer of at least 0 and not more than 5, and p + q = 5, wherein at least one of the monomer unit and the monomer unit includes at least one fluorine atom; the polymer has a weight average molecular weight of at least 10,000 and not more than 150,000; and the polymer has a molecular weight distribution (Mw/Mn) of at least 1.30 and not more than 1.60.