mhurhangee/ep-ind-claims huggingface dataset:
A solar reactive sheet of agricultural mulch shrinkfilm comprising: one or more sheets of one or more layers of augmented heat shrink material that has been augmented by a mechanical process of elongating longitudinally at an elevated temperature between 60 and 120 degrees Celsius and subsequently cooling, said heat shrink material comprising a linear low density polyethylene (LLDPE), wherein the heat shrink material will shrink by 10% to 30% in surface area, if unrestrained, but does not expand, when the temperature of the film is elevated to at least 40 degrees Celsius by exposure to solar radiation; characterised in that each sheet comprises elongated polymer molecules that are aligned in a longitudinal machine direction and has uniform thickness over the entire surface area providing a monoaxially oriented sheet, across the entire width, in the machine direction and in that at least one of the one or more layers of heat shrink material contains between 2% and 8% by weight of carbon black particles of between 17 and 100 nanometres in size.
A light emitting module for an automotive headlight, comprising: a light guide plate comprising a front surface for exiting light;, a rear surface positioned opposite to the front surface, and a side surface positioned at a side of the light guide plate; a first lighting unit configured to emit a first light beam incident upon the rear surface of the light guide plate, the first lighting unit positioned backwards and at a distance from a rear surface of the light guide plate; and a second lighting unit configured to emit a second light beam incident upon the side surface of the light guide plate, the second lighting unit positioned sidewards of a side surface of the light guide plate; characterized in that the light guide plate has a plurality of concave structures containing a lower inclined flat surface ("bfgc") and an upper flat surface ("aegc") angled with respect to the lower inclined flat surface ("bfgc") at the rear surface thereof for refracting the light of the first light beam hitting the concave structures downwards and for reflecting the second light beam forwards towards the front surface of the light guide plate. a light guide plate comprising a front surface for exiting light;, a rear surface positioned opposite to the front surface, and a side surface positioned at a side of the light guide plate; a first lighting unit configured to emit a first light beam incident upon the rear surface of the light guide plate, the first lighting unit positioned backwards and at a distance from a rear surface of the light guide plate; and a second lighting unit configured to emit a second light beam incident upon the side surface of the light guide plate, the second lighting unit positioned sidewards of a side surface of the light guide plate; characterized in that the light guide plate has a plurality of concave structures containing a lower inclined flat surface ("bfgc") and an upper flat surface ("aegc") angled with respect to the lower inclined flat surface ("bfgc") at the rear surface thereof for refracting the light of the first light beam hitting the concave structures downwards and for reflecting the second light beam forwards towards the front surface of the light guide plate.
A gas-generating apparatus comprising: a first compartment containing a first fuel and a second compartment containing a second fuel, wherein the first and second fuel are mixed to form a fuel mixture, said fuel mixture reacts to produce a gas in the presence of a catalyst; and wherein the first compartment comprises a cover rigidly connected to an actuator located on the outside of the gas-generating apparatus by a hollow shaft, wherein the actuator is selectively actuatable to move the cover to mix the first and second fuels, wherein the hollow shaft is movable relative to a housing of the gas-generating apparatus and is in fluid communication with a reference pressure and with an expandable member of a self-regulating reactor within the gas-generator, wherein the self-regulating reactor contains the catalyst and opens or closes depending on a pressure difference between the reference pressure and an internal pressure of the gas-generating apparatus, wherein the self-regulating reactor comprises a cup and a cap connected by the expandable member. a first compartment containing a first fuel and a second compartment containing a second fuel, wherein the first and second fuel are mixed to form a fuel mixture, said fuel mixture reacts to produce a gas in the presence of a catalyst; and wherein the first compartment comprises a cover rigidly connected to an actuator located on the outside of the gas-generating apparatus by a hollow shaft, wherein the actuator is selectively actuatable to move the cover to mix the first and second fuels, wherein the hollow shaft is movable relative to a housing of the gas-generating apparatus and is in fluid communication with a reference pressure and with an expandable member of a self-regulating reactor within the gas-generator, wherein the self-regulating reactor contains the catalyst and opens or closes depending on a pressure difference between the reference pressure and an internal pressure of the gas-generating apparatus, wherein the self-regulating reactor comprises a cup and a cap connected by the expandable member.
An outdoor unit for an air-conditioning apparatus, comprising a fan guard covering an air outlet provided in a front panel, the air outlet being opened in a circular shape, the fan guard having a spiral wire formed in a spiral shape and having a hole in a center portion of the spiral wire, a center cap covering the hole, and an outer frame wire that is formed in an annular shape to surround an outer circumference of the spiral wire, the outdoor unit being characterized in that the outer frame wire comprises one end portion and an other end portion at both ends of the annular shape, the two end portions being displaced from each other in a radial direction of the spiral wire and joined to each other at a position of an outer circumferential end portion of the spiral wire.
A molded plastic pass through article comprising: the article having a cylindrical portion for insertion into a panel hole, the article having a flange at one end of the cylindrical portion and a plurality of supports (18a, 18b, 18c) extending from an opposite end of the cylindrical portion characterized in that the supports (18a, 18b, 18c) extend in an axial direction away from the cylindrical portion, the article having a plurality of flexible transverse lock arms (20a, 20b, 20c, 20d) attached to the plurality of supports (18a, 18b, 18c) and extending therefrom with transverse orientation in cantilever fashion, so as to flex in transverse direction during installation, the plurality of flexible transverse lock arms (20a, 20b, 20c, 20d) being spaced from the cylindrical portion in the axial direction and terminating in lock feet (24a, 24b, 24c, 24d) facing the flange. the article having a cylindrical portion for insertion into a panel hole, the article having a flange at one end of the cylindrical portion and a plurality of supports (18a, 18b, 18c) extending from an opposite end of the cylindrical portion characterized in that the supports (18a, 18b, 18c) extend in an axial direction away from the cylindrical portion, the article having a plurality of flexible transverse lock arms (20a, 20b, 20c, 20d) attached to the plurality of supports (18a, 18b, 18c) and extending therefrom with transverse orientation in cantilever fashion, so as to flex in transverse direction during installation, the plurality of flexible transverse lock arms (20a, 20b, 20c, 20d) being spaced from the cylindrical portion in the axial direction and terminating in lock feet (24a, 24b, 24c, 24d) facing the flange.
A repeater for an optical communication system that is configured to transmit test signals and to monitor corresponding reflected test signals from both inbound and outbound directions, the repeater comprising: a first amplifier having an input and an output, and for amplifying optical signals; a second amplifier having an input and an output, and for amplifying optical signals; a first high loss loop back - HLLB - path for coupling the output of the first amplifier to the input of the second amplifier, wherein the first HLLB path is configured to pass test signals only in their wavelength range and configured to reject wavelengths outside of said wavelength range; a second HLLB path for coupling the output of the second amplifier to the input of the first amplifier, wherein the second HLLB path is configured to pass the test signals in said wavelength range and configured to reject wavelengths outside of said wavelength range; and a third HLLB path for coupling the output of the first amplifier to the output of the second amplifier, characterized in that the third HLLB path is configured to pass wavelengths in said wavelength range and at least one reflected test signal outside said wavelength range. a first amplifier having an input and an output, and for amplifying optical signals; a second amplifier having an input and an output, and for amplifying optical signals; a first high loss loop back - HLLB - path for coupling the output of the first amplifier to the input of the second amplifier, wherein the first HLLB path is configured to pass test signals only in their wavelength range and configured to reject wavelengths outside of said wavelength range; a second HLLB path for coupling the output of the second amplifier to the input of the first amplifier, wherein the second HLLB path is configured to pass the test signals in said wavelength range and configured to reject wavelengths outside of said wavelength range; and a third HLLB path for coupling the output of the first amplifier to the output of the second amplifier, characterized in that the third HLLB path is configured to pass wavelengths in said wavelength range and at least one reflected test signal outside said wavelength range.
A chemical sensing device, comprising: a substrate of semiconductor material, a photodetector formed in the substrate, a dielectric on the substrate, a wiring in the dielectric, the wiring providing electric connections for the photodetector, a source of electromagnetic radiation arranged in or above the dielectric, a fluorescent sensor layer arranged above the dielectric, wherein a waveguide is arranged in or above the dielectric, a portion of the waveguide is arranged at the source of electromagnetic radiation, the electromagnetic radiation emitted by the source of electromagnetic radiation being coupled into the waveguide by a diffraction grating or butt coupling, a further portion of the waveguide is arranged between the photodetector and the fluorescent sensor layer, the chemical sensing device comprises integrated circuit components formed in the substrate, the wiring provides electric connections for the integrated circuit components, and the chemical sensing device comprises a mirror layer arranged between the waveguide and the photodetector, the mirror layer configured to reflect the electromagnetic radiation emitted by the source of electromagnetic radiation. a substrate of semiconductor material, a photodetector formed in the substrate, a dielectric on the substrate, a wiring in the dielectric, the wiring providing electric connections for the photodetector, a source of electromagnetic radiation arranged in or above the dielectric, a fluorescent sensor layer arranged above the dielectric, wherein a waveguide is arranged in or above the dielectric, a portion of the waveguide is arranged at the source of electromagnetic radiation, the electromagnetic radiation emitted by the source of electromagnetic radiation being coupled into the waveguide by a diffraction grating or butt coupling, a further portion of the waveguide is arranged between the photodetector and the fluorescent sensor layer, the chemical sensing device comprises integrated circuit components formed in the substrate, the wiring provides electric connections for the integrated circuit components, and the chemical sensing device comprises a mirror layer arranged between the waveguide and the photodetector, the mirror layer configured to reflect the electromagnetic radiation emitted by the source of electromagnetic radiation.
A machine arrangement having several processing stations for the processing of sheets, wherein in transport direction of the sheets several processing stations (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) are arranged consecutively for the inline-processing of these sheets, wherein at least one of these processing stations is configured as a non-impact printing device and at least one of the processing stations (02; 03; 04; 07; 08; 09; 11; 12) arranged downstream in transport direction of the sheets of the non-impact printing device is configured as a dryer (07; 09), wherein at least one further of the processing stations (02; 03; 04; 07; 08; 09; 11; 12) arranged downstream in transport direction of the sheets of the non-impact printing device is configured as a coating device (02; 03; 08), wherein the relevant coating device (02; 03; 08) arranged downstream is configured as a device applying a coating in the form of a lacquer on the respective sheet, wherein along the transport path of the sheets several in each case individually controlled non-impact printing devices are arranged, wherein the several non-impact printing devices are in each case configured as an inkjet printer, characterized in that at least one processing station (01; 02; 03; 04; 07; 08; 09; 11; 12) arranged upstream in transport direction of the sheets of the non-impact printing device is configured as a coating device (02; 03; 08), wherein the relevant coating device (02; 03; 08) arranged upstream is configured as a device applying a coating in the form of a primer or a cold foil on the respective sheet, wherein the at least one processing station (01; 02; 03; 04; 07; 08; 09; 11; 12) arranged upstream in transport direction of the sheets of the non-impact printing device, which is configured as a coating device (02; 03; 08) applying a primer or a cold foil, and the at least one processing station (02; 03; 04; 07; 08; 09; 11; 12) arranged downstream in transport direction of the sheets of the non-impact printing device, which is configured as a coating device (02; 03; 08) applying a lacquer, in each case has a dryer (07; 09) arranged downstream, wherein the relevant dryer (07; 09), which is arranged downstream of the processing station (01; 02; 03; 04; 07; 08; 09; 11; 12), which is configured as a coating device (02; 03; 08) applying a primer or a cold foil, is configured as a device drying the relevant sheet by means of an irradiation with infrared radiation and by hot air, wherein the relevant dryer (07; 09) is arranged downstream of the processing station (01; 02; 03; 04; 07; 08; 09; 11; 12), which is configured as a coating device (02; 03; 08) applying a lacquer, is configured as a device drying the relevant sheet by means of an irradiation with infrared radiation or by means of hot air or as a device drying the relevant sheet by means of an irradiation with ultraviolet radiation.
A neural stimulation system comprising: a lead configured to be placed in a desired position in contact with neural tissue; one or more electrodes at the distal end of said lead, to apply electrical pulses to the targeted tissue region; and an implantable pulse generator having a programmable microprocessor including embedded code, said implantable pulse generator coupled to said lead and configured to supply said electrical pulses; wherein said electrical pulses are a repeating succession of non-regular pulse trains, in which the interval between electrical pulses changes over time; and wherein said microprocessor generates said electrical pulses configured to suppress beta band oscillatory activity according to a computational model of a basal ganglia. a lead configured to be placed in a desired position in contact with neural tissue; one or more electrodes at the distal end of said lead, to apply electrical pulses to the targeted tissue region; and an implantable pulse generator having a programmable microprocessor including embedded code, said implantable pulse generator coupled to said lead and configured to supply said electrical pulses; wherein said electrical pulses are a repeating succession of non-regular pulse trains, in which the interval between electrical pulses changes over time; and wherein said microprocessor generates said electrical pulses configured to suppress beta band oscillatory activity according to a computational model of a basal ganglia.
A method, comprising: - a radio access network entity configured by a radio access network operator with at least one tracking area it is to be associated with, sending a request to a core network entity in charge of mobility management and/or paging coordination in a cellular mobile communication network for registering onto said core network entity, for said at least one tracking area, wherein the cellular mobile communication network comprises a radio access network shared between different core network operators, - said radio access network entity receiving from said core network entity an acceptation or a rejection of said request. - a radio access network entity configured by a radio access network operator with at least one tracking area it is to be associated with, sending a request to a core network entity in charge of mobility management and/or paging coordination in a cellular mobile communication network for registering onto said core network entity, for said at least one tracking area, wherein the cellular mobile communication network comprises a radio access network shared between different core network operators, - said radio access network entity receiving from said core network entity an acceptation or a rejection of said request.
A navigation device programmed with a map database and software that enables routes to be planned using the map database, wherein the device is programmed to calculate a route to a destination, and is further programmed to display a navigation map on a touch screen display, the map updating the current position of the device, and is further programmed such that the user can, by touching the screen, cause display of a menu screen which displays an option that, if selected through a further touch action, initiates a re-calculation of the route from the current position of the device to the destination so as to include the nearest point of interest of a user-defined type.
A method of producing β-glucocerebrosidase or a variant thereof, the method comprising culturing a cell that is deficient in lysosomal integral membrane protein II (LIMP-2) as compared to a corresponding wild type cell and which expresses β-glucocerebrosidase or the variant thereof under conditions in which β-glucocerebrosidase or the variant thereof is produced, thereby producing β-glucocerebrosidase or the variant thereof, wherein the β-glucocerebrosidase or the variant thereof is secreted from the LIMP-2 deficient cell.
An imaging device including: a pixel array unit including pixels; an analog signal generation unit configured to generate an analog signal based on a temperature around the pixel array unit; an A/D conversion unit configured to convert the analog signal into a digital signal; a switch configured to cut off the analog signal to be supplied to the A/D conversion unit; and a correction unit configured to correct the digital signal, the imaging device being characterised in that the correction unit calculates a parameter of a correction calculation expression for correcting the digital signal based on a first digital signal obtained through A/D conversion from the analog signal cut off by the switch and a second digital signal obtained through A/D conversion from the analog signal generated by the analog signal generation unit. a pixel array unit including pixels; an analog signal generation unit configured to generate an analog signal based on a temperature around the pixel array unit; an A/D conversion unit configured to convert the analog signal into a digital signal; a switch configured to cut off the analog signal to be supplied to the A/D conversion unit; and a correction unit configured to correct the digital signal, the imaging device being characterised in that the correction unit calculates a parameter of a correction calculation expression for correcting the digital signal based on a first digital signal obtained through A/D conversion from the analog signal cut off by the switch and a second digital signal obtained through A/D conversion from the analog signal generated by the analog signal generation unit.
A method of imaging, by means of magnetic resonance, at least a portion of a human or animal subject of interest positioned in a static magnetic field, the method comprising: - taking measurements of electrocardiogram data of a heart of the subject of interest; - generating vector cardiogram data from the electrocardiogram data including determining an electrical axis of the heart; - determining at least one parameter of an acquisition period of acquiring magnetic resonance signals from the vector cardiogram data in order to synchronize a measurement of magnetic resonance signals to a cyclic movement of the heart of the subject of interest; wherein the at least one parameter of the acquisition period is determined by comparing an actual value of a discriminating function, which is based on an angular relationship between the determined electrical axis of the heart and an instantaneous vector of the vector cardiogram, with a predetermined reference function, which is based on a fixed threshold of the actual value of the discrimination function, wherein for determining the at least one parameter of the acquisition period, a step of adapting at least one of the discriminating function and the predetermined reference function is executed, dependent on a breathing status of the human or animal subject of interest, wherein the step of adapting comprises modifying the angular relationship between the determined electrical axis of the heart and the instantaneous vector of the vector cardiogram. - taking measurements of electrocardiogram data of a heart of the subject of interest; - generating vector cardiogram data from the electrocardiogram data including determining an electrical axis of the heart; - determining at least one parameter of an acquisition period of acquiring magnetic resonance signals from the vector cardiogram data in order to synchronize a measurement of magnetic resonance signals to a cyclic movement of the heart of the subject of interest; wherein the at least one parameter of the acquisition period is determined by comparing an actual value of a discriminating function, which is based on an angular relationship between the determined electrical axis of the heart and an instantaneous vector of the vector cardiogram, with a predetermined reference function, which is based on a fixed threshold of the actual value of the discrimination function, wherein for determining the at least one parameter of the acquisition period, a step of adapting at least one of the discriminating function and the predetermined reference function is executed, dependent on a breathing status of the human or animal subject of interest,