mhurhangee/ep-ind-claims huggingface dataset:
A method of applying material from a nozzle (100; 1602), the method comprising: positioning the nozzle (100; 1602) relative to a substrate to which material is to be applied from a dispensing port (102; 1606) of the nozzle (100; 1602); dispensing the material from the dispensing port (102; 1606) at a surface of the nozzle (100; 1602), wherein a dispensing axis extends through a central location of the dispensing port (102; 1606) at the surface of the nozzle (100; 1602) and in a direction parallel to an average material stream orientation of the material dispensed; concurrent to dispensing the material from the dispensing port (102; 1606), discharging gas from an air-mask port (202; 1612), wherein a masking axis extends through a central location of the air-mask port (202; 1612) in a direction parallel to an average stream orientation of the gas discharged toward the substrate; an alignment axis extends through the dispensing port (102; 1606) and the air-mask port (202; 1612); and while dispensing the material and discharging the gas, moving the nozzle (100; 1602) along an application line of the substrate such that the dispensing axis intersects with the masking axis within 5 cm of a substrate application surface of the substrate.
A recombinant RhCMV or HCMV vector comprising a nucleic acid sequence encoding a heterologous antigen, wherein the heterologous antigen is a human pathogen-specific antigen isolated from a Paramyxoviridae virus, wherein the vector includes a deletion of one or more RhCMV or HCMV genes that are essential for or augment replication.
A system for the generation of electrical power comprising: a solar collector for heating water using solar energy, the heated water stored in a first tank; a vessel connected to the first tank through a first pipe and a second pipe, wherein the first pipe terminates with a water spraying means inside a headspace of the vessel and wherein the second pipe is connected for feeding back into the first tank via a first pump; means to control the flow of water in the first and second pipes (24, 36) so that the pressure in the headspace is maintained below atmospheric pressure enabling the water sprayed by the water spraying means to convert into steam, and wherein the means to control are configured such that at least initially the flow rate of the fluid through the first pipe is smaller than the flow rate through the second pipe thereby causing a reduction in pressure in the headspace; a partial admission turbine connected to the vessel via a third pipe which enables steam from the headspace to travel to the turbine; a condenser located at the bottom of the turbine including a plurality of water outlets which are configured to spray water from a second tank into the condenser to condense the remaining steam into water; a second pump that is configured to pump the water from the bottom of the turbine through a fourth pipe into the second tank; and wherein the system is configured so that steam drives the partial admission turbine that drives an electrical generator. a vessel connected to the first tank through a first pipe and a second pipe, wherein the first pipe terminates with a water spraying means inside a headspace of the vessel and wherein the second pipe is connected for feeding back into the first tank via a first pump; means to control the flow of water in the first and second pipes (24, 36) so that the pressure in the headspace is maintained below atmospheric pressure enabling the water sprayed by the water spraying means to convert into steam, and wherein the means to control are configured such that at least initially the flow rate of the fluid through the first pipe is smaller than the flow rate through the second pipe thereby causing a reduction in pressure in the headspace; a partial admission turbine connected to the vessel via a third pipe which enables steam from the headspace to travel to the turbine; a condenser located at the bottom of the turbine including a plurality of water outlets which are configured to spray water from a second tank into the condenser to condense the remaining steam into water; a second pump that is configured to pump the water from the bottom of the turbine through a fourth pipe into the second tank; and wherein the system is configured so that steam drives the partial admission turbine that drives an electrical generator.
A method for an anesthetic vaporizer, comprising: determining a quantitative acceleration of the anesthetic vaporizer based on acceleration vectors measured by an accelerometer coupled within the anesthetic vaporizer, determining an orientation of the anesthetic vaporizer during the quantitative acceleration based on the acceleration vectors; and outputting an alert responsive to the quantitative acceleration exceeding an acceleration threshold, wherein the acceleration threshold is selected from a plurality of acceleration thresholds based on the determined orientation. determining a quantitative acceleration of the anesthetic vaporizer based on acceleration vectors measured by an accelerometer coupled within the anesthetic vaporizer, determining an orientation of the anesthetic vaporizer during the quantitative acceleration based on the acceleration vectors; and outputting an alert responsive to the quantitative acceleration exceeding an acceleration threshold, wherein the acceleration threshold is selected from a plurality of acceleration thresholds based on the determined orientation.
An image display apparatus comprising at least one processor, wherein the processor is configured to: superimpose and display relevant information related to each of a plurality of regions of interest included in a medical image on the medical image to be switchable between display and hiding, wherein the medical image is a three-dimensional image including a plurality of tomographic images; specify at least one region of attention based on specification information including other information other than information dedicated to specifying regions of attention that a user pays attention to among the plurality of regions of interest, wherein the other information is a detection result of another operation related to display or interpretation of the medical image; and switch to display relevant information related to the specified region of attention; wherein the other operation is a paging operation on the tomographic image, and the processor is configured to specify a region of interest included in the tomographic image being paging-operated as the region of attention. superimpose and display relevant information related to each of a plurality of regions of interest included in a medical image on the medical image to be switchable between display and hiding, wherein the medical image is a three-dimensional image including a plurality of tomographic images; specify at least one region of attention based on specification information including other information other than information dedicated to specifying regions of attention that a user pays attention to among the plurality of regions of interest, wherein the other information is a detection result of another operation related to display or interpretation of the medical image; and switch to display relevant information related to the specified region of attention; wherein the other operation is a paging operation on the tomographic image, and the processor is configured to specify a region of interest included in the tomographic image being paging-operated as the region of attention.
A process for preparing a sulfurized calcium dodecylphenate, comprising: (a) reacting (i) dodecylphenol with (ii) a calcium hydroxide in an amount of 0.35 to 0.6 moles per mole of dodecylphenol charged and (iii) an ethylene glycol in an amount of 0.13 to 0.6 moles per mole of dodecylphenol charged; and (b) reacting the product of step (a) with (iv) sulfur in an amount of 2.2 to 3 moles per mole of dodecylphenol charged, the reaction of step (b) being conducted at 180 °C to 230 °C; and thereafter optionally (c) reacting the product of step (b) with additional alkaline earth metal hydroxide or alkaline earth metal oxide and with carbon dioxide so as to form an overbased phenate. (a) reacting (i) dodecylphenol with (ii) a calcium hydroxide in an amount of 0.35 to 0.6 moles per mole of dodecylphenol charged and (iii) an ethylene glycol in an amount of 0.13 to 0.6 moles per mole of dodecylphenol charged; and (ii) a calcium hydroxide in an amount of 0.35 to 0.6 moles per mole of dodecylphenol charged and (iii) an ethylene glycol in an amount of 0.13 to 0.6 moles per mole of dodecylphenol charged; and (b) reacting the product of step (a) with (iv) sulfur in an amount of 2.2 to 3 moles per mole of dodecylphenol charged, the reaction of step (b) being conducted at 180 °C to 230 °C; and thereafter optionally (iv) sulfur in an amount of 2.2 to 3 moles per mole of dodecylphenol charged, the reaction of step (b) being conducted at 180 °C to 230 °C; and thereafter optionally (c) reacting the product of step (b) with additional alkaline earth metal hydroxide or alkaline earth metal oxide and with carbon dioxide so as to form an overbased phenate.
Open roof construction for a vehicle having a roof opening defined in a roof part (2, 2') of the vehicle, comprising at least a panel which is movable between a closed position in which it closes the roof opening and an open position in which it opens the roof opening and is positioned at least partially above an adjoining roof part, a first device for moving the rear side of the panel towards a raised position relative to the closed position and above the adjoining roof part, and a second device for moving and/or supporting the front side of the panel, wherein the first device includes a lifting member pivotally fixed to the panel and slidably cooperating with a control slide for moving the panel at least to a venting position in which the rear end of the panel is raised, the control slide and the lifting member being guided by a guide rail having at least a guide groove and extending in longitudinal direction of the vehicle alongside the roof opening and below the adjoining roof part, one or more seals (26, 27) closing off a passage opening alongside the adjoining roof part above the guide rail and allowing passage of the lifting member in positions of the panel above the adjoining roof part, characterized by a support lever also cooperating with the control slide and supporting the panel at least in positions in which the panel is above the adjoining roof part, the support lever being guided in the guide groove of the guide rail and is adapted to also pass through the passage opening, wherein the support lever is pivotally fixed to the panel or to the lifting member.
A method of manufacturing a current sensing inductive device, comprising: securing a first end of a conductive winding to one of a plurality of segmented winding elements; continuously winding the conductive winding onto the plurality of segmented winding elements in a sequential order (2902, 2904); and securing a second end of the conductive winding to the one of the plurality of segmented winding elements; wherein the method is characterized in that the sequential order (2902, 2904) comprises: a first step of traversing the conductive winding from the one of the plurality of segmented winding elements over each of at least a portion of the plurality of segmented winding elements in a first direction; a second step of traversing the conductive winding over each of the plurality of segmented winding elements in a second direction, the second direction being opposite from the first direction; and a third step of traversing the conductive winding over each of the plurality of segmented winding elements in the first direction up to the one of the plurality of segmented winding elements. securing a first end of a conductive winding to one of a plurality of segmented winding elements; continuously winding the conductive winding onto the plurality of segmented winding elements in a sequential order (2902, 2904); and securing a second end of the conductive winding to the one of the plurality of segmented winding elements; wherein the method is characterized in that the sequential order (2902, 2904) comprises: a first step of traversing the conductive winding from the one of the plurality of segmented winding elements over each of at least a portion of the plurality of segmented winding elements in a first direction; a second step of traversing the conductive winding over each of the plurality of segmented winding elements in a second direction, the second direction being opposite from the first direction; and a third step of traversing the conductive winding over each of the plurality of segmented winding elements in the first direction up to the one of the plurality of segmented winding elements. a first step of traversing the conductive winding from the one of the plurality of segmented winding elements over each of at least a portion of the plurality of segmented winding elements in a first direction; a second step of traversing the conductive winding over each of the plurality of segmented winding elements in a second direction, the second direction being opposite from the first direction; and a third step of traversing the conductive winding over each of the plurality of segmented winding elements in the first direction up to the one of the plurality of segmented winding elements.
Fuel cell system with at least one fuel cell stack, to which a reaction gas can be supplied on the gas inlet side and which has at least one flush valve on the gas outlet side on a flush cell, and with a control, which controls the actuation of the flush valve as a function of the voltage of the flush cell, characterised in that a voltage tap is provided in a region (28, 42) of the flush cell in which the concentration of the reaction gas falls most quickly to a predefined threshold value, wherein a bipolar plate (20, 40) is arranged between two fuel cells (6, 10) and the voltage tap is provided in the region of an edge side (30, 46) of the bipolar plate (20, 40), wherein a gas outlet for the reaction gas is disposed on a lower edge side of the bipolar plate (20, 40) and the voltage tap is provided on a left or right edge side of the bipolar plate (20, 40).
A plurality of stackable valves where each valve is characterized by: an operating chamber ring having a flat ring shaped body with a plurality of tabs where the plurality of tabs are spaced around an outer perimeter of the flat ring shaped body and extend downward from a bottom side of the flat ring shaped body; a control chamber ring stacked on top of the operating chamber ring where the control chamber ring has a flat ring shaped top with a first cylindrical section extending downward from an outer diameter of the flat ring shaped top and a second cylindrical section extending downward from an inner diameter of the flat ring shaped top and where a bottom of the first cylindrical section rests on a top side of the operating chamber ring and where a plurality of slots are formed in the bottom of the first cylindrical section; a valve piston captured between the operating chamber ring and the control chamber ring where the valve piston has a generally flat disk shaped top with a third cylindrical section extending downwards at an inner diameter of the generally flat disk shaped top and where a bottom surface of the third cylindrical section forms a sealing surface, the valve piston configured to move between an open position and a closed position by moving along a cylindrical axis of the third cylindrical section. an operating chamber ring having a flat ring shaped body with a plurality of tabs where the plurality of tabs are spaced around an outer perimeter of the flat ring shaped body and extend downward from a bottom side of the flat ring shaped body; a control chamber ring stacked on top of the operating chamber ring where the control chamber ring has a flat ring shaped top with a first cylindrical section extending downward from an outer diameter of the flat ring shaped top and a second cylindrical section extending downward from an inner diameter of the flat ring shaped top and where a bottom of the first cylindrical section rests on a top side of the operating chamber ring and where a plurality of slots are formed in the bottom of the first cylindrical section; a valve piston captured between the operating chamber ring and the control chamber ring where the valve piston has a generally flat disk shaped top with a third cylindrical section extending downwards at an inner diameter of the generally flat disk shaped top and where a bottom surface of the third cylindrical section forms a sealing surface, the valve piston configured to move between an open position and a closed position by moving along a cylindrical axis of the third cylindrical section.
A device for examining value documents and/or the transport of value documents which are transported along a specified transport path in a specified transport direction, by means of ultrasound with ultrasound transmitters disposed offset in a direction transverse to the transport direction for emitting, upon transmit signals, ultrasound on the transport path and ultrasound receivers disposed offset in a direction transverse to the transport direction for receiving ultrasound which is generated by means of the ultrasound transmitters and for emitting receive signals or with ultrasound transmitters/receivers disposed offset in a direction transverse to the transport direction for emitting ultrasound on the transport path upon transmit signals and for receiving the ultrasound after interaction with at least one of the value documents and for emitting receive signals, characterized in that wherein the ultrasound transmitters and/or ultrasound receivers respectively have at least one capacitive, micromechanical ultrasonic transducer, or wherein the ultrasound transmitters/receivers respectively have at least one capacitive, micromechanical ultrasonic transducer.
A joining method for a medical device which is a surgical instrument or implant having a shaft and an attachment to be fixed thereto, wherein the joining method comprises the following steps: heating the attachment or cooling of the shaft so that an inner diameter (d H) of an opening of the heated attachment is larger than an outer diameter of the shaft, subsequently inserting the shaft into the opening of the attachment, subsequently cooling the attachment in order to shrink it onto the shaft substantially without a gap, or heating the shaft in order to expand it within the opening of the attachment, so that the shaft and the opening are connected via an interference fit, characterized in that the joining method further comprises the following steps: monitoring the temperature of the attachment or respectively of the shaft at at least a first point close to the opening or respectively at an outer circumference of an end of the shaft to be inserted into the attachment as well as at a second point at an attachment border region or respectively shaft region spaced apart from the first point (P2, P3). heating the attachment or cooling of the shaft so that an inner diameter (d H) of an opening of the heated attachment is larger than an outer diameter of the shaft, subsequently inserting the shaft into the opening of the attachment, subsequently cooling the attachment in order to shrink it onto the shaft substantially without a gap, or heating the shaft in order to expand it within the opening of the attachment, so that the shaft and the opening are connected via an interference fit, characterized in that the joining method further comprises the following steps: monitoring the temperature of the attachment or respectively of the shaft at at least a first point close to the opening or respectively at an outer circumference of an end of the shaft to be inserted into the attachment as well as at a second point at an attachment border region or respectively shaft region spaced apart from the first point (P2, P3).
A wind turbine rotor blade having a root end and a tip end, comprising: a wind turbine blade shell that defines a suction side, pressure side, leading edge, and a trailing edge of the blade; at least one spar cap associated with the blade shell and including a conductive material; a lightning conductor; and an equipotential bonding element electrically bonding the lightning conductor to the spar cap, wherein the blade shell includes a plurality of stacks of fibre plies, each stack of fibre plies has an inboard edge towards the root end of the blade, an outboard edge towards the tip end of the blade, a forward edge towards the leading edge of the blade, and a rear edge towards the trailing edge of the blade, wherein the equipotential bonding element extends between an outboard edge of one stack and an inboard edge of an adjacent stack which overlap to define an overlapping region extending across the spar cap. a wind turbine blade shell that defines a suction side, pressure side, leading edge, and a trailing edge of the blade; at least one spar cap associated with the blade shell and including a conductive material; a lightning conductor; and an equipotential bonding element electrically bonding the lightning conductor to the spar cap, wherein the blade shell includes a plurality of stacks of fibre plies, each stack of fibre plies has an inboard edge towards the root end of the blade, an outboard edge towards the tip end of the blade, a forward edge towards the leading edge of the blade, and a rear edge towards the trailing edge of the blade, wherein the equipotential bonding element extends between an outboard edge of one stack and an inboard edge of an adjacent stack which overlap to define an overlapping region extending across the spar cap.