mhurhangee/ep-ind-claims huggingface dataset:
A camera module, comprising: a lens assembly; a photosensitive chip; an electrical bracket; and at least one photosensitive chip connecting device, wherein the lens assembly is located on a photosensitive path of the photosensitive chip, and the electrical bracket comprises a bracket body and a circuit which is embedded in the bracket body, characterized in that the photosensitive chip connecting device is disposed on the photosensitive chip, wherein the photosensitive chip connecting device includes a connecting element and a conducting element, wherein the conducting element is disposed on the connecting element to increase the height of the photosensitive chip connecting device and the height of the conducting element is set in such a manner that the photosensitive chip connecting device is conductively connected to the circuit for implementing an electrical connection of the photosensitive chip and the photosensitive chip connecting device has a strong structure so as to firmly fix the photosensitive chip at a preset position; wherein the connecting element is preset on a surface of the photosensitive chip, and the conducting element is conductively and firmly disposed on the connecting element and protrudes from the connecting element, wherein the connecting element is specifically implemented as a metal pad disposed on the photosensitive chip, and the conducting element is specifically implemented as a metal cylinder plated with a thickness corresponding to the set height on the connecting element. a lens assembly; a photosensitive chip; an electrical bracket; and at least one photosensitive chip connecting device, wherein the lens assembly is located on a photosensitive path of the photosensitive chip, and the electrical bracket comprises a bracket body and a circuit which is embedded in the bracket body, characterized in that the photosensitive chip connecting device is disposed on the photosensitive chip, wherein the photosensitive chip connecting device includes a connecting element and a conducting element, wherein the conducting element is disposed on the connecting element to increase the height of the photosensitive chip connecting device and the height of the conducting element is set in such a manner that the photosensitive chip connecting device is conductively connected to the circuit for implementing an electrical connection of the photosensitive chip and the photosensitive chip connecting device has a strong structure so as to firmly fix the photosensitive chip at a preset position; wherein the connecting element is preset on a surface of the photosensitive chip, and the conducting element is conductively and firmly disposed on the connecting element and protrudes from the connecting element, wherein the connecting element is specifically implemented as a metal pad disposed on the photosensitive chip, and the conducting element is specifically implemented as a metal cylinder plated with a thickness corresponding to the set height on the connecting element.
A gas generator for an air bag or other safety device, comprising: an elongated pressure vessel (12, 1012) having a primary gas generant portion (22, 1022) with a first open end and a secondary portion (24, 1024) with a second open end; said primary gas generant portion (22, 1022) having a primary ignition device (16, 1016) and primary gas (46, 1046) generating energetics disposed therein, said primary ignition device (16, 1016) being mounted on said pressure vessel (12, 1012) at said first open end; a pressure vessel closure (50, 1050) secured to said second end of said pressure vessel (12, 1012); said primary gas generant portion (22, 1022) having a gas therein under a predetermined pressure; said pressure vessel (12, 1012) having a midportion (20, 1020), a primary divider (26, 1028) disposed within said midportion (20 1020) to separate said primary gas generant portion (22, 1022) and said secondary portion (24, 1024), said primary divider (26, 1028) being slidably mounted within said midportion (20, 1020); said pressure vessel (12, 1012) having a primary exit orifice (36, 1036) in said midportion (20, 1020) that is in communication with said primary gas generant portion (22, 1022), and a primary rupture disk (38, 1038) disposed over said primary exit orifice (36, 1036). an elongated pressure vessel (12, 1012) having a primary gas generant portion (22, 1022) with a first open end and a secondary portion (24, 1024) with a second open end; said primary gas generant portion (22, 1022) having a primary ignition device (16, 1016) and primary gas (46, 1046) generating energetics disposed therein, said primary ignition device (16, 1016) being mounted on said pressure vessel (12, 1012) at said first open end; a pressure vessel closure (50, 1050) secured to said second end of said pressure vessel (12, 1012); said primary gas generant portion (22, 1022) having a gas therein under a predetermined pressure; said pressure vessel (12, 1012) having a midportion (20, 1020), a primary divider (26, 1028) disposed within said midportion (20 1020) to separate said primary gas generant portion (22, 1022) and said secondary portion (24, 1024), said primary divider (26, 1028) being slidably mounted within said midportion (20, 1020); said pressure vessel (12, 1012) having a primary exit orifice (36, 1036) in said midportion (20, 1020) that is in communication with said primary gas generant portion (22, 1022), and a primary rupture disk (38, 1038) disposed over said primary exit orifice (36, 1036).
A work vehicle comprising: a vehicle body having an engine; a traveling mechanism driven by a rotational power from the engine; an implement for effecting a ground work in association with traveling of the vehicle body; a load ratio calculation section for calculating an engine load ratio indicative of an engine load of the engine; a ground speed calculation section for calculating a ground speed of the vehicle body with using satellite positioning data; and a slip ratio calculation section for calculating a slip ratio indicative of slippage of the traveling mechanism relative to a ground surface by using the ground speed; a traveling work control section for creating an appropriate traveling work state by controlling a rotational speed of the engine and a posture of the implement; and a traveling work management section for outputting a state changing command that commands a change of the traveling work state, based on the engine load ratio and the slip ratio; whereby the traveling work management section includes a contribution ratio estimation section for estimating a contribution ratio of the slip ratio and a contribution ratio of the engine load to the reduction in the ground speed at time of reduction in the ground speed during constant speed traveling work and the traveling work management section is configured to output the state changing command based on the contribution ratios. a vehicle body having an engine; a traveling mechanism driven by a rotational power from the engine; an implement for effecting a ground work in association with traveling of the vehicle body; a load ratio calculation section for calculating an engine load ratio indicative of an engine load of the engine; a ground speed calculation section for calculating a ground speed of the vehicle body with using satellite positioning data; and a slip ratio calculation section for calculating a slip ratio indicative of slippage of the traveling mechanism relative to a ground surface by using the ground speed; a traveling work control section for creating an appropriate traveling work state by controlling a rotational speed of the engine and a posture of the implement; and a traveling work management section for outputting a state changing command that commands a change of the traveling work state, based on the engine load ratio and the slip ratio; whereby the traveling work management section includes a contribution ratio estimation section for estimating a contribution ratio of the slip ratio and a contribution ratio of the engine load to the reduction in the ground speed at time of reduction in the ground speed during constant speed traveling work and the traveling work management section is configured to output the state changing command based on the contribution ratios.
A process for converting mixed waste plastic into petrochemicals, comprising feeding mixed waste plastic to a pyrolysis reactor, converting said MWP into a gaseous stream and a liquid stream, and further processing said gaseous stream into petrochemicals, said process further comprising the steps of: i) feeding said liquid stream, together with a hydrocracker feed, to a hydrocracking unit, said hydrocracker feed comprising crude distillation bottoms from atmospheric distillation and/or vacuum distillation; ii) converting said liquid stream, together with said hydrocracker feed, through hydrocracking into at least one gaseous stream and a liquid stream: iii) further processing said at least one gaseous stream into petrochemicals, wherein in step i) said liquid stream from said pyrolysis reactor is first separated into a liquid stream having a high aromatics content and a liquid stream having a low aromatics content, wherein said liquid stream having a low aromatics content is then sent to said hydrocracking unit and wherein said liquid stream having a high aromatics content by-passes said hydrocracking unit. i) feeding said liquid stream, together with a hydrocracker feed, to a hydrocracking unit, said hydrocracker feed comprising crude distillation bottoms from atmospheric distillation and/or vacuum distillation; ii) converting said liquid stream, together with said hydrocracker feed, through hydrocracking into at least one gaseous stream and a liquid stream: iii) further processing said at least one gaseous stream into petrochemicals, wherein in step i) said liquid stream from said pyrolysis reactor is first separated into a liquid stream having a high aromatics content and a liquid stream having a low aromatics content, wherein said liquid stream having a low aromatics content is then sent to said hydrocracking unit and wherein said liquid stream having a high aromatics content by-passes said hydrocracking unit.
An IL33 antagonist for use in treating or inhibiting asthma in a subject having both the intronic IL1RL1 variant rs1420101 risk allele, and the IL33 variant rs1342326 risk allele.
Mixer with a driven rotatable bowl, comprising a support framework for the driven rotatable bowl, for containing a dough, inside which there is arranged to operate at least one driven mixing tool, said rotatable bowl comprising an inner container at least laterally surrounded by means for the thermal treatment of such inner container, said means for the thermal treatment of the inner container being of the type with thermal exchange fluid, said thermal treatment means comprising reversible connection means, for filling said thermal treatment means with a thermal exchange fluid, said reversible connection means being configured to alternatingly take a configuration selected from among - a connection configuration, with the rotatable bowl inoperative, for introducing and circulating the thermal exchange fluid in said thermal treatment means of said inner container, - a disconnection configuration, with the rotatable bowl available for the rotation, and with said at least one driven mixing tool driven to operate in said rotatable bowl, characterized in that said rotatable bowl is configured to rotate, in use configuration, around a vertical axis. - a connection configuration, with the rotatable bowl inoperative, for introducing and circulating the thermal exchange fluid in said thermal treatment means of said inner container, - a disconnection configuration, with the rotatable bowl available for the rotation, and with said at least one driven mixing tool driven to operate in said rotatable bowl,
An organic light emitting diode, comprising: an anode; a first organic light emitting layer disposed over the anode; a cathode disposed over the first organic light emitting layer; and an electron control layer disposed between the first organic light emitting layer and the cathode, the electron control layer including ytterbium, wherein the cathode includes: a first inorganic compound layer contacting the electron control layer to form a P-N junction with the electron control layer; and a conductive layer disposed over the first inorganic compound layer. an anode; a first organic light emitting layer disposed over the anode; a cathode disposed over the first organic light emitting layer; and an electron control layer disposed between the first organic light emitting layer and the cathode, the electron control layer including ytterbium, wherein the cathode includes: a first inorganic compound layer contacting the electron control layer to form a P-N junction with the electron control layer; and a conductive layer disposed over the first inorganic compound layer. a first inorganic compound layer contacting the electron control layer to form a P-N junction with the electron control layer; and a conductive layer disposed over the first inorganic compound layer.
An electronic device comprising: a display; an antenna structure; a conductive support disposed between the display and the antenna structure; a sensor disposed between the display and the conductive support; a first printed circuit board disposed between the conductive support and the antenna structure; a second printed circuit board stacked on the first printed circuit board; a board support coupled with the conductive support 310) and overlapping at least part of the second printed circuit board; a first insulating member comprising an insulating material disposed between the board support and the antenna structure; and wherein the first insulating member is in contact with a surface of the board support and a surface of the antenna structure; and when viewed from a front of the display, the conductive support, the board support, the first insulating member and the antenna structure are sequentially stacked. a display; an antenna structure; a conductive support disposed between the display and the antenna structure; a sensor disposed between the display and the conductive support; a first printed circuit board disposed between the conductive support and the antenna structure; a second printed circuit board stacked on the first printed circuit board; a board support coupled with the conductive support 310) and overlapping at least part of the second printed circuit board; a first insulating member comprising an insulating material disposed between the board support and the antenna structure; and wherein the first insulating member is in contact with a surface of the board support and a surface of the antenna structure; and when viewed from a front of the display, the conductive support, the board support, the first insulating member and the antenna structure are sequentially stacked.
Configuration software, adapted to carry out the method in accordance with claim 12, for preparing configuration data and a PLC program for at least one control device and/or protective device, comprising a programmable logic controller, for monitoring and/or controlling at least one drive component for at least one switching device for medium-voltage technology or high-voltage technology, wherein PLC programming software for programming a programmable logic controller is integrated in the configuration software and the configuration software comprises commands to exchange data in a structured data format with the PLC programming software.
An ice cream machine having a filling zone and an emptying zone, said ice cream machine comprising: a rotatable unit having a radial extension; at least one mould for receiving ice cream, said moulds being arranged to rotate with said rotatable unit; an extrusion nozzle for extruding ice cream into said moulds, said extrusion nozzle being arranged at said filling zone; an ejection mechanism for ejecting ice cream radially out of said moulds at said emptying zone, characterized by a stick providing arrangement that is arranged to provide a stick for each mould, wherein the stick providing arrangement is arranged in a stick providing zone, prior to the filling zone, and is arranged to provide each mould with a stick as the moulds are rotated passed the stick providing arrangement, such that the stick is provided to the mould 20 prior to filling the mould 20 with ice cream said ejection mechanism comprising a piston connected to said mould, and a bottom of said mould is radially movable together with said piston. a rotatable unit having a radial extension; at least one mould for receiving ice cream, said moulds being arranged to rotate with said rotatable unit; an extrusion nozzle for extruding ice cream into said moulds, said extrusion nozzle being arranged at said filling zone; an ejection mechanism for ejecting ice cream radially out of said moulds at said emptying zone, characterized by a stick providing arrangement that is arranged to provide a stick for each mould, wherein the stick providing arrangement is arranged in a stick providing zone, prior to the filling zone, and is arranged to provide each mould with a stick as the moulds are rotated passed the stick providing arrangement, such that the stick is provided to the mould 20 prior to filling the mould 20 with ice cream said ejection mechanism comprising a piston connected to said mould, and a bottom of said mould is radially movable together with said piston.
A procedure to prepare a crystalline form of Dutasteride comprising the following steps: a. reacting 4-aza-5α-androst-1-ene-3-one-17β-carboxylic acid with at least one of methanesulfonyl chloride, p-toluenesulfonyl chloride and pivaloyl chloride in an aprotic solvent and in the presence of a scavenger of HCl at a temperature below 10°C; b. reacting the intermediate substances generated in step a. with 2,5-bis(trifluoromethyl)aniline in the presence of a Lewis acid; c. heating to reflux until the reaction is complete; and d. distilling the solvent to obtain a residue. a. reacting 4-aza-5α-androst-1-ene-3-one-17β-carboxylic acid with at least one of methanesulfonyl chloride, p-toluenesulfonyl chloride and pivaloyl chloride in an aprotic solvent and in the presence of a scavenger of HCl at a temperature below 10°C; b. reacting the intermediate substances generated in step a. with 2,5-bis(trifluoromethyl)aniline in the presence of a Lewis acid; c. heating to reflux until the reaction is complete; and d. distilling the solvent to obtain a residue.
An apparatus for receiving a multitude of programs, said programs being classified by at least a channel name and a program category, the apparatus comprising user operable profiling means (8, 11) for defining a subset of said multitude of programs constituting a user profile, and zap means for sequentially selecting members of said multitude of programs, characterized in that the user profile comprises an individual rating for each value combination of at least a value of the channel name and a value of the program category, the rating determining whether a program classified by said value combination is a member of said subset, and in that the profiling means (8, 11) are adapted to control the zap means in accordance with said rating to sequentially select the members of said subset only.
A computer implemented method for quantifying the extent of interstitial lung disease and predicting its progression, the method comprising: obtaining at least one image based on a scan of at least a part of a patient's lung; segmenting the image to (i) obtain a lung mask defining the periphery of the lung and (ii) to identify structures within the lung mask wherein; the method being characterized by: applying a weighting to the identified structures based on the relative position of the structures relative to the lung periphery to obtain a weighted score; and quantifying the extent of interstitial lung disease, and/or predicting the progression of interstitial lung disease over time, based on the weighted score; and wherein segmenting the image to identify structures within the lung mask comprises identifying reticulo-vascular structures comprising at least one of: pulmonary vessels and reticulation. obtaining at least one image based on a scan of at least a part of a patient's lung; segmenting the image to (i) obtain a lung mask defining the periphery of the lung and (ii) to identify structures within the lung mask wherein; the method being characterized by: applying a weighting to the identified structures based on the relative position of the structures relative to the lung periphery to obtain a weighted score; and quantifying the extent of interstitial lung disease, and/or predicting the progression of interstitial lung disease over time, based on the weighted score; and wherein segmenting the image to identify structures within the lung mask comprises identifying reticulo-vascular structures comprising at least one of: pulmonary vessels and reticulation. applying a weighting to the identified structures based on the relative position of the structures relative to the lung periphery to obtain a weighted score; and quantifying the extent of interstitial lung disease, and/or predicting the progression of interstitial lung disease over time, based on the weighted score; and wherein segmenting the image to identify structures within the lung mask comprises identifying reticulo-vascular structures comprising at least one of: pulmonary vessels and reticulation.
A thermostat comprising: a wireless transmitter; control circuits coupled to the wireless transmitter; power sensing circuitry; a thermal sensor coupled to the control circuits wherein the control circuits respond to a pre-set temperature requirement to activate a selected output, and wherein, responsive to the power sensing circuitry sensing available power at a first level, wireless communications are reduced to a predetermined level; characterised in that, responsive to the power sensing circuity sensing available power at a lower, second level the selected output is activated by a thermally responsive switch. a wireless transmitter; control circuits coupled to the wireless transmitter; power sensing circuitry; a thermal sensor coupled to the control circuits wherein the control circuits respond to a pre-set temperature requirement to activate a selected output, and wherein, responsive to the power sensing circuitry sensing available power at a first level, wireless communications are reduced to a predetermined level; characterised in that, responsive to the power sensing circuity sensing available power at a lower, second level the selected output is activated by a thermally responsive switch.