mhurhangee/patent-ind-claim-en huggingface dataset:
Glazed element comprising a fixed frame , at least one gasket G a and at least one frameless inwardly openable casement , • the casement comprises a multiple glazing comprising in external position a glass pane , said glass pane including at least one thermally treated glass sheet, • the gasket G a extends along the periphery of the casement and is located between the external face of the glass pane and the fixed frame, the glazed element further comprising a gasket G b , which extends along the fixed frame, is in continuous contact with the fixed frame and with the casement when the glazed element is in closed position, and is located inwardly with respect to the gasket G a , wherein • the glass pane has an overall bow on its bottom edge of at most 3.0 mm/m, measured according to EN 1863-1:2011, • the gasket G a is such that it is in continuous contact with the fixed frame and the bottom edge of the glass pane when the glazed element is in closed position, • the glass pane has an overall bow on side edges of at most 3.0 mm/m, measured according to EN 1863-1:2011, and • the gasket G a is such that it is in continuous contact with the fixed frame and with the side edges of the glass pane when the glazed element is in closed position, wherein • the gasket G a is in non continuous contact with the fixed frame and the top edge of the glass pane when the glazed element is in closed position. • the casement comprises a multiple glazing comprising in external position a glass pane , said glass pane including at least one thermally treated glass sheet, • the gasket G a extends along the periphery of the casement and is located between the external face of the glass pane and the fixed frame, the glazed element further comprising a gasket G b , which extends along the fixed frame, is in continuous contact with the fixed frame and with the casement when the glazed element is in closed position, and is located inwardly with respect to the gasket G a , wherein • the glass pane has an overall bow on its bottom edge of at most 3.0 mm/m, measured according to EN 1863-1:2011, • the gasket G a is such that it is in continuous contact with the fixed frame and the bottom edge of the glass pane when the glazed element is in closed position, • the glass pane has an overall bow on side edges of at most 3.0 mm/m, measured according to EN 1863-1:2011, and • the gasket G a is such that it is in continuous contact with the fixed frame and with the side edges of the glass pane when the glazed element is in closed position, wherein • the gasket G a is in non continuous contact with the fixed frame and the top edge of the glass pane when the glazed element is in closed position.
A power converter for providing a DC output signal to an anode structure in an electroplating or painting system , comprising: a pulse width modulation, PWM, inverter to generate a first AC signal as a PWM AC signal having a fundamental frequency; a sinewave filter configured to suppress a carrier frequency component voltage of the first AC signal, including an input to receive the first AC signal, and an output to provide a sinusoidal, filtered AC signal; a multiphase isolation transformer , including a primary winding to receive the filtered AC signal, and a multiphase secondary to provide a plurality of isolated AC signals; a multi-pulse diode bridge rectifier , including a plurality of rectifier inputs to receive the plurality of isolated AC signals, and a rectifier output to provide a DC rectifier output signal; the output filter , including an input to receive the DC rectifier output signal, and an output to provide the filtered DC rectifier output signal; and a blocking diode , including an anode connected to the output of the output filter , and a cathode for providing the filtered DC rectifier output signal to the corresponding tank anode structure to promote formation of material on the workpiece travelling along the process direction between the entry end and the exit end ; characterized in that the PWM inverter is an adjustable voltage, adjustable frequency PWM inverter, and in that the power converter is configured to regulate the ripple in the output DC voltage by adjusting the fundamental frequency of the first AC signal generated by the PWM inverter . a pulse width modulation, PWM, inverter to generate a first AC signal as a PWM AC signal having a fundamental frequency; a sinewave filter configured to suppress a carrier frequency component voltage of the first AC signal, including an input to receive the first AC signal, and an output to provide a sinusoidal, filtered AC signal; a multiphase isolation transformer , including a primary winding to receive the filtered AC signal, and a multiphase secondary to provide a plurality of isolated AC signals; a multi-pulse diode bridge rectifier , including a plurality of rectifier inputs to receive the plurality of isolated AC signals, and a rectifier output to provide a DC rectifier output signal; the output filter , including an input to receive the DC rectifier output signal, and an output to provide the filtered DC rectifier output signal; and a blocking diode , including an anode connected to the output of the output filter , and a cathode for providing the filtered DC rectifier output signal to the corresponding tank anode structure to promote formation of material on the workpiece travelling along the process direction between the entry end and the exit end ;
A lead receptacle comprising a lumen configured to support a lead traversing through the lumen, wherein the lumen is configured to support one or more cardiac leads traversing through an intercostal space and the lead receptacle is configured to be fixed for chronic implantation in the intercostal space .
A section of a packaging line for beverage containers , which section comprises: - a shrinking tunnel , via which shrinking tunnel thermoplastic packaging material can be shrunk onto assemblies of beverage containers in order to produce packs , as well as - at least one manipulator , which manipulator is preferably designed for the clamping and/or form-fitting reception and handling of packs produced via the shrinking tunnel , characterized in that - the at least one manipulator is located downstream of the packs , directly following the shrinking tunnel , so that no horizontal conveying device is arranged between the at least one manipulator and the shrinking tunnel as a further station or working device, as the case may be. - a shrinking tunnel , via which shrinking tunnel thermoplastic packaging material can be shrunk onto assemblies of beverage containers in order to produce packs , as well as - at least one manipulator , which manipulator is preferably designed for the clamping and/or form-fitting reception and handling of packs produced via the shrinking tunnel , characterized in that - the at least one manipulator is located downstream of the packs , directly following the shrinking tunnel , so that no horizontal conveying device is arranged between the at least one manipulator and the shrinking tunnel as a further station or working device, as the case may be.
A ceramic separation membrane structure including: a ceramic porous body; a zeolite separation membrane disposed on the ceramic porous body; and zeolite repaired portions deposited in defect portions which are not covered with the zeolite separation membrane and where the surface of the ceramic porous body is exposed, characterized in that a percentage of the zeolite repaired portion to the zeolite separation membrane is 20% or less in terms of mass ratio quantitatively analyzed by X-ray diffraction; and the zeolite of the zeolite separation membrane is of a DDR type, and the zeolite of the zeolite repaired portions is of an MFI type. a ceramic porous body; a zeolite separation membrane disposed on the ceramic porous body; and zeolite repaired portions deposited in defect portions which are not covered with the zeolite separation membrane and where the surface of the ceramic porous body is exposed, characterized in that a percentage of the zeolite repaired portion to the zeolite separation membrane is 20% or less in terms of mass ratio quantitatively analyzed by X-ray diffraction; and the zeolite of the zeolite separation membrane is of a DDR type, and the zeolite of the zeolite repaired portions is of an MFI type.
A process for producing hydrogen comprising exposing a liquid composition comprising a hydrocarbon to electromagnetic radiation in the presence of a solid catalyst, wherein the catalyst comprises: at least one metal species, comprising one or more elements selected from Fe, Ni and Co; and a non-oxygenated ceramic; wherein the electromagnetic radiation is microwave radiation. at least one metal species, comprising one or more elements selected from Fe, Ni and Co; and a non-oxygenated ceramic;
A computer-implemented method of building a database (DB) of pulse sequences for magnetic resonance imaging, each pulse sequence comprising at least a magnetic field gradient waveform and a set of radio-frequency pulses, each pulse of said set being defined by a plurality of design parameters and being associated to a respective transmission channel (RFC1 - RFC8) of a magnetic resonance imaging apparatus; the method comprising: a) for each of a plurality of magnetic resonance imaging subjects, determining a pulse sequence, called optimal sequence for the subject, optimizing a cost or merit function representative of a difference between a spatial distribution of nuclear magnetization flip angles, obtained by simulating the pulse sequence on the subject, and a target distribution; b) for each subject, computing the values of said cost or merit function or of a different cost or merit function representative of a difference between a spatial distribution of nuclear magnetization flip angles and a target distribution, said values being obtained by simulating the optimal sequences for all the subjects; c) aggregating the subjects into a plurality of clusters using a clustering algorithm taking said values, or functions thereof, as metrics; and d) for each cluster, determining a pulse sequence, called optimal sequence for the cluster, optimizing a cost or merit function representative of an averaged difference between the spatial distribution of nuclear magnetization flip angles of the subjects belonging to the cluster and the target distribution. a) for each of a plurality of magnetic resonance imaging subjects, determining a pulse sequence, called optimal sequence for the subject, optimizing a cost or merit function representative of a difference between a spatial distribution of nuclear magnetization flip angles, obtained by simulating the pulse sequence on the subject, and a target distribution; b) for each subject, computing the values of said cost or merit function or of a different cost or merit function representative of a difference between a spatial distribution of nuclear magnetization flip angles and a target distribution, said values being obtained by simulating the optimal sequences for all the subjects; c) aggregating the subjects into a plurality of clusters using a clustering algorithm taking said values, or functions thereof, as metrics; and d) for each cluster, determining a pulse sequence, called optimal sequence for the cluster, optimizing a cost or merit function representative of an averaged difference between the spatial distribution of nuclear magnetization flip angles of the subjects belonging to the cluster and the target distribution.
A conveying belt for an image forming device comprising: a cylindrical base layer ; and a surface layer that is formed on the outer peripheral surface of the base layer , wherein the base layer contains at least one kind of polyimide or polyamide-imide, the base layer has an elastic modulus of equal to or greater than 3 GPa and equal to or less than 7 GPa, the surface layer is configured as a cured object from a resin composition that contains a fluororesin (A) having a hydroxy group, an isocyanate curing agent (B), and a silicone copolymer (C), the silicone copolymer (C) is a copolymer containing a silicone unit having a siloxane skeleton and another kind of unit not having a siloxane skeleton and has a hydroxy group, characterized in that the silicone copolymer (C) contains siloxane units in a proportion of equal to or greater than 95 mol% and less than 100 mol%, and the silicone copolymer (C) content in the resin composition is equal to or greater than 1 part by mass and equal to or less than 5 parts by mass relative to a total of 100 parts by mass of the fluororesin (A) and the isocyanate curing agent (B). wherein the base layer contains at least one kind of polyimide or polyamide-imide, the base layer has an elastic modulus of equal to or greater than 3 GPa and equal to or less than 7 GPa, the surface layer is configured as a cured object from a resin composition that contains a fluororesin (A) having a hydroxy group, an isocyanate curing agent (B), and a silicone copolymer (C), the silicone copolymer (C) is a copolymer containing a silicone unit having a siloxane skeleton and another kind of unit not having a siloxane skeleton and has a hydroxy group, characterized in that the silicone copolymer (C) contains siloxane units in a proportion of equal to or greater than 95 mol% and less than 100 mol%, and the silicone copolymer (C) content in the resin composition is equal to or greater than 1 part by mass and equal to or less than 5 parts by mass relative to a total of 100 parts by mass of the fluororesin (A) and the isocyanate curing agent (B).
A method of processing a broadcast signal in a transmitting system, the method comprising: outer encoding (301-1) Layer 1, L1, signaling data; zero-padding the outer encoded L1 signaling data; low-density parity-check, LDPC, encoding the zero-padded L1 signaling data; zero-removing the LDPC encoded L1 signaling data; mapping data of a plurality of Physical Layer Pipes, PLPs, into constellations using a non-uniform constellation M-QAM scheme, wherein M is one of 64, 256, 1024, and 4096; time interleaving the mapped data; building a signal frame based on the zero-removed L1 signaling data and the time interleaved data, wherein the zero-removed L1 signaling data includes repeated data; modulating data in the built signal frame by an Orthogonal Frequency Division Multiplexing ,OFDM, method; and transmitting the broadcast signal having the modulated data, wherein the zero-removed L1 signaling data further includes channel bonding information indicating a number of channels for a channel bonding applied to the broadcast signal, and wherein when the channel bonding is applied, reordering for the broadcast signal is performed at a receiver side. outer encoding (301-1) Layer 1, L1, signaling data; zero-padding the outer encoded L1 signaling data; low-density parity-check, LDPC, encoding the zero-padded L1 signaling data; zero-removing the LDPC encoded L1 signaling data; mapping data of a plurality of Physical Layer Pipes, PLPs, into constellations using a non-uniform constellation M-QAM scheme, wherein M is one of 64, 256, 1024, and 4096; time interleaving the mapped data; building a signal frame based on the zero-removed L1 signaling data and the time interleaved data, wherein the zero-removed L1 signaling data includes repeated data; modulating data in the built signal frame by an Orthogonal Frequency Division Multiplexing ,OFDM, method; and transmitting the broadcast signal having the modulated data, wherein the zero-removed L1 signaling data further includes channel bonding information indicating a number of channels for a channel bonding applied to the broadcast signal, and wherein when the channel bonding is applied, reordering for the broadcast signal is performed at a receiver side.
An apparatus, comprising means for performing: determining, on the basis of measurement data measured from a radio link, a distance between a mobile access node and a mobile terminal device and angular movement of the mobile terminal device with respect to the mobile access node, wherein the angular movement is determined by measuring an angle-of-arrival of a received reference signal in different measuring occasions with respect to a reference axis; storing information indicating a cell edge in terms of a distance to the mobile access node; using the distance and angular movement indicated by the measurement data to estimate a duration until the mobile terminal device reaches the cell edge; making a decision about a length of a time interval between consecutive radio measurements of the mobile terminal device on the basis of the distance, the angular movement, and the estimated duration; and communicating the decision over the radio link or another radio link and causing the mobile terminal device to conduct the consecutive radio measurements with the length of the time interval; wherein - said determination, storing, estimation, decision making and communicating are all performed either by the mobile access node or by the mobile terminal device, or - said determination is performed by the mobile terminal device, and said storing, estimation, decision making and communicating are performed by the mobile access node. determining, on the basis of measurement data measured from a radio link, a distance between a mobile access node and a mobile terminal device and angular movement of the mobile terminal device with respect to the mobile access node, wherein the angular movement is determined by measuring an angle-of-arrival of a received reference signal in different measuring occasions with respect to a reference axis; storing information indicating a cell edge in terms of a distance to the mobile access node; using the distance and angular movement indicated by the measurement data to estimate a duration until the mobile terminal device reaches the cell edge; making a decision about a length of a time interval between consecutive radio measurements of the mobile terminal device on the basis of the distance, the angular movement, and the estimated duration; and communicating the decision over the radio link or another radio link and causing the mobile terminal device to conduct the consecutive radio measurements with the length of the time interval; wherein - said determination, storing, estimation, decision making and communicating are all performed either by the mobile access node or by the mobile terminal device, or - said determination is performed by the mobile terminal device, and said storing, estimation, decision making and communicating are performed by the mobile access node. - said determination, storing, estimation, decision making and communicating are all performed either by the mobile access node or by the mobile terminal device, or - said determination is performed by the mobile terminal device, and said storing, estimation, decision making and communicating are performed by the mobile access node.
Mechanism for a seat and/or lounger with at least one seat element, at least one backrest part hinged to the seat element and at least one substructure for supporting the seating element, wherein the mechanism comprises at least a guide unit (102; 202; 302), which comprises at least two spaced-apart guide rails (104; 204) arranged substantially parallel to one another and at least two guide elements (105; 205) designed to complement them, wherein guide rails (140; 204) and guide elements (105; 205) are operatively connected to one another, wherein the guide unit (102; 202) can be arranged between seat element and substructure (136; 236) and the guide unit (102; 202) forms the at least one seat element with the backrest part hinged thereto so as to be displaceable relative to the substructure (136; 236), so that the at least one seat element with the backrest part hinged thereto can be transferred from a first position of use to a second position of use and vice versa, wherein the second position of use in the state of the mechanism arranged on a piece of sitting and/or lying furniture is formed forward of the first position of use or wherein the second position of use in the state of the mechanism arranged on a piece of sitting and/or lying furniture is formed backward of the first position of use, wherein the mechanism comprises a cover element , which comprises laterally protruding extension struts (124; 126), wherein at least two of these struts comprise an inclination different from horizontal.
A seam welding apparatus that performs resistance seam welding on layered steel plates , the seam welding apparatus comprising: an articulated robot ; and a welding device attached to the robot , the welding device comprising: a pair of rotating electrodes ; an electrode supporting frame that supports the rotating electrodes ; the seam welding apparatus being characterized in that ; the articulated robot includes a joint for which a predetermined tolerance is set; and that it further comprises a distance measuring means provided on the electrode supporting frame , the distance measuring means being configured to measure a distance to an edge of the steel plate ; and a controller configured to control the robot to adjust, within the predetermined tolerance for the joint of the articulated robot , a running direction of the rotating electrodes so that a deviation comes into zero when a distance actually measured by the distance measuring means deviates from a predetermined distance. an articulated robot ; and a welding device attached to the robot , a pair of rotating electrodes ; an electrode supporting frame that supports the rotating electrodes ; the seam welding apparatus being characterized in that ; the articulated robot includes a joint for which a predetermined tolerance is set; and that it further comprises a distance measuring means provided on the electrode supporting frame , the distance measuring means being configured to measure a distance to an edge of the steel plate ; and a controller configured to control the robot to adjust, within the predetermined tolerance for the joint of the articulated robot , a running direction of the rotating electrodes so that a deviation comes into zero when a distance actually measured by the distance measuring means deviates from a predetermined distance.
A method of compressing an elongate stack of folded absorbent tissues to form a tissue log , the method comprising: providing a stack of folded absorbent tissues having a stack length; transporting the stack along a compression path from an input end to an output end , the compression path being defined between first and second opposed transport surfaces provided on first and second compression members ; the transport surfaces being operable to transport a stack along the compression path from the input end to the output end ; moving at least the first compression member towards the second compression member from a first spacing to a second spacing to compress the stack and form the log, wherein the stack is compressed with a pressure of greater than 120 kN/m2, the compression path has a length greaterthan the stack length and during compression, the stack moves along the compression path with respect to the compression members. providing a stack of folded absorbent tissues having a stack length; transporting the stack along a compression path from an input end to an output end , the compression path being defined between first and second opposed transport surfaces provided on first and second compression members ; the transport surfaces being operable to transport a stack along the compression path from the input end to the output end ; moving at least the first compression member towards the second compression member from a first spacing to a second spacing to compress the stack and form the log, wherein the stack is compressed with a pressure of greater than 120 kN/m2, the compression path has a length greaterthan the stack length and during compression, the stack moves along the compression path with respect to the compression members.