mhurhangee/patent-ind-claim-en huggingface dataset:
A method of connecting an electronic component on a mounting substrate , comprising: arranging the electronic component on the mounting substrate with a first surface of the electronic component facing the mounting substrate and a second surface of the electronic component facing away from the mounting substrate, the first and second surfaces of the electronic component being opposite to each other; and electrically connecting a first component-side conductor on the second surface of the electronic component to a first substrate-side conductor on the mounting substrate ; characterized in that the step of electrically connecting the first component-side conductor comprises using a common portion of electrically-conductive adhesive to electrically connect the first component-side conductor to a pair of conductor portions provided on the mounting substrate on either side of the electronic component , the electrically-conductive adhesive being applied in the form of electrically-conductive paste, and there is provided a step of solidifying the electrically-conductive paste by a heating process. arranging the electronic component on the mounting substrate with a first surface of the electronic component facing the mounting substrate and a second surface of the electronic component facing away from the mounting substrate, the first and second surfaces of the electronic component being opposite to each other; and electrically connecting a first component-side conductor on the second surface of the electronic component to a first substrate-side conductor on the mounting substrate ; characterized in that the step of electrically connecting the first component-side conductor comprises using a common portion of electrically-conductive adhesive to electrically connect the first component-side conductor to a pair of conductor portions provided on the mounting substrate on either side of the electronic component , the electrically-conductive adhesive being applied in the form of electrically-conductive paste, and there is provided a step of solidifying the electrically-conductive paste by a heating process.
A low-profile universal passive protector for an IV catheter comprising: a hypodermic needle ; an over-the-needle catheter removeably disposed about the hypodermic needle ; an elongate sheath detachably engaged with the over-the-needle catheter , the elongate sheath defining an outer periphery, a sheath cavity , and a longitudinal axis ; a slider connected to the hypodermic needle and movable along the sheath between a first position and a second position, the hypodermic needle being drawn into the sheath cavity as the slider moves from the first position toward the second position; a finger-press plate coupled to the sheath and detachably coupled to the over-the-needle catheter , the finger press-plate extending beyond the slider in a direction perpendicular to the longitudinal axis to define a plate height; and a flashback body coupled to the slider , characterized in that the flashback body being configured such that a portion of the flashback body extends beyond an external surface of the slider , the flashback body and slider collectively defining a cavity in fluid communication with the hypodermic needle , the cavity having a portion extending beyond the outer periphery of the elongate sheath , the flashback body extending from the slider in a direction perpendicular to the longitudinal axis to define a flashback body height; the flashback body height being less than the plate height. a hypodermic needle ; an over-the-needle catheter removeably disposed about the hypodermic needle ; an elongate sheath detachably engaged with the over-the-needle catheter , the elongate sheath defining an outer periphery, a sheath cavity , and a longitudinal axis ; a slider connected to the hypodermic needle and movable along the sheath between a first position and a second position, the hypodermic needle being drawn into the sheath cavity as the slider moves from the first position toward the second position; a finger-press plate coupled to the sheath and detachably coupled to the over-the-needle catheter , the finger press-plate extending beyond the slider in a direction perpendicular to the longitudinal axis to define a plate height; and a flashback body coupled to the slider , characterized in that the flashback body being configured such that a portion of the flashback body extends beyond an external surface of the slider , the flashback body and slider collectively defining a cavity in fluid communication with the hypodermic needle , the cavity having a portion extending beyond the outer periphery of the elongate sheath , the flashback body extending from the slider in a direction perpendicular to the longitudinal axis to define a flashback body height; the flashback body height being less than the plate height.
An intravascular blood pump , comprising: a catheter ; a housing in which a rotor is housed, the housing being attached to a distal end of the catheter ; a flexible drive shaft extending through the catheter and connected to the rotor , said drive shaft being rotatably supported in a proximal bearing located proximally of the rotor ; wherein the proximal bearing comprises a bearing sleeve and an outer bearing ring , wherein the bearing sleeve comprises a proximal portion located proximally of the outer bearing ring , the proximal portion of the bearing sleeve forming an axial bearing of the proximal bearing together with a proximal surface of the outer bearing ring and wherein the bearing sleeve comprises a distal portion extending from the proximal portion of the bearing sleeve distally into the outer bearing ring , wherein the distal portion of the bearing sleeve forms a radial bearing of the proximal bearing together with the outer bearing ring . a catheter ; a housing in which a rotor is housed, the housing being attached to a distal end of the catheter ; a flexible drive shaft extending through the catheter and connected to the rotor , said drive shaft being rotatably supported in a proximal bearing located proximally of the rotor ; wherein the proximal bearing comprises a bearing sleeve and an outer bearing ring , wherein the bearing sleeve comprises a proximal portion located proximally of the outer bearing ring , the proximal portion of the bearing sleeve forming an axial bearing of the proximal bearing together with a proximal surface of the outer bearing ring and wherein the bearing sleeve comprises a distal portion extending from the proximal portion of the bearing sleeve distally into the outer bearing ring , wherein the distal portion of the bearing sleeve forms a radial bearing of the proximal bearing together with the outer bearing ring .
A driver's cab for an industrial truck with - a driver's canopy supported by four pillars, of which two are designed as A-pillars and two are designed as B-pillars , - wherein one side wall in each case extends between one of the A-pillars and one of the B-pillars , an end wall extends between the B-pillars , and an entry region extends between the A-pillars , - the B-pillars are each formed from a tubular profile and at least one of the A-pillars is formed from a corner profile which has two legs arranged at an angle to each other. - a driver's canopy supported by four pillars, of which two are designed as A-pillars and two are designed as B-pillars , - wherein one side wall in each case extends between one of the A-pillars and one of the B-pillars , an end wall extends between the B-pillars , and an entry region extends between the A-pillars , - the B-pillars are each formed from a tubular profile and at least one of the A-pillars is formed from a corner profile which has two legs arranged at an angle to each other.
A differential pressure sensor comprising: a first sensor housing member having a first fluid inlet port for receiving a first fluid at a first pressure; a second sensor housing member having a second fluid inlet port for receiving a second fluid at a second pressure; and a pressure-sensing subassembly having a substrate and a semiconductor pressure-sensing die attached to the substrate , the semiconductor pressure-sensing die including a sensitive diaphragm having an upper surface and a lower surface and at least one piezoresistive element formed at at least one of the lower surface and the upper surface of the sensitive diaphragm , the substrate having a first aperture defined therethrough which is substantially aligned with the lower surface of the sensitive diaphragm , the pressure-sensing subassembly configured to be inserted into the differential pressure sensor such that once inserted the first fluid inlet port is in fluid communication with the upper surface of the sensitive diaphragm and the second fluid inlet port is in fluid communication with the lower surface of the sensitive diaphragm ; characterised in that the pressure-sensing subassembly further comprises a control circuit attached to the substrate and electrically connected to the at least one piezoresistive element, and a housing attached to the substrate , the housing containing the semiconductor pressure-sensing die and having a second aperture defined therethrough for providing fluid communication with the upper surface of the sensitive diaphragm . a first sensor housing member having a first fluid inlet port for receiving a first fluid at a first pressure; a second sensor housing member having a second fluid inlet port for receiving a second fluid at a second pressure; and a pressure-sensing subassembly having a substrate and a semiconductor pressure-sensing die attached to the substrate , the semiconductor pressure-sensing die including a sensitive diaphragm having an upper surface and a lower surface and at least one piezoresistive element formed at at least one of the lower surface and the upper surface of the sensitive diaphragm , the substrate having a first aperture defined therethrough which is substantially aligned with the lower surface of the sensitive diaphragm , the pressure-sensing subassembly configured to be inserted into the differential pressure sensor such that once inserted the first fluid inlet port is in fluid communication with the upper surface of the sensitive diaphragm and the second fluid inlet port is in fluid communication with the lower surface of the sensitive diaphragm ; characterised in that the pressure-sensing subassembly further comprises a control circuit attached to the substrate and electrically connected to the at least one piezoresistive element, and a housing attached to the substrate , the housing containing the semiconductor pressure-sensing die and having a second aperture defined therethrough for providing fluid communication with the upper surface of the sensitive diaphragm .
Process for optimizing individually tailored garments of the same type, comprising the steps of: a. Measuring at least one body part and generating a first data set for manufacturing the garment, including measured data of the body part , b. Manufacturing a first garment based on the determined data set, wherein the garment comprises of at least one indicator element via which properties and/or changes of the garment due to the use of the garment by a user can be determined, c. Use of the first garment by a user, d. Examining the used first garment with regard to changes due to the use by the wearer for the production of a second garment of the same type, thereby ▪ generating a second data set containing measured data of the used first garment, ▪ comparing the second data set with the first data set, ▪ checking the indicator element with regard to information relevant to the production of the second garment, e. Generating a third data set based on the first data set, the second data set, and the result from the indicator element check , f. Manufacturing the second garment based on the third data set, g. Repeating as necessary the previous method steps d) to f), starting from the respective last garment produced and used, for further optimization of the fit and/or the properties of the respective new garment to be produced. a. Measuring at least one body part and generating a first data set for manufacturing the garment, including measured data of the body part , b. Manufacturing a first garment based on the determined data set, wherein the garment comprises of at least one indicator element via which properties and/or changes of the garment due to the use of the garment by a user can be determined, c. Use of the first garment by a user, d. Examining the used first garment with regard to changes due to the use by the wearer for the production of a second garment of the same type, thereby ▪ generating a second data set containing measured data of the used first garment, ▪ comparing the second data set with the first data set, ▪ checking the indicator element with regard to information relevant to the production of the second garment, ▪ generating a second data set containing measured data of the used first garment, ▪ comparing the second data set with the first data set, ▪ checking the indicator element with regard to information relevant to the production of the second garment, e. Generating a third data set based on the first data set, the second data set, and the result from the indicator element check , f. Manufacturing the second garment based on the third data set, g. Repeating as necessary the previous method steps d) to f), starting from the respective last garment produced and used, for further optimization of the fit and/or the properties of the respective new garment to be produced.
Food handling system comprising: a food positioning system comprising: a main conveying surface configured to move food products , an electronic sensor configured to capture position data about one or more food products on the main conveying surface within a sensor range of the sensor , a robot , and a controller which is signal-connected to the electronic sensor and the robot , and configured to instruct the robot to move a food product from the main conveying surface to a destination position, characterized in that : with respect to the food positioning system: the food products on the main conveying surface comprising a stack of food products , the electronic sensor configured to detect when the stack of food products is not properly stacked or aligned in a vertical direction on the main conveying surface , and the controller configured to instruct the robot to correct the vertical mis-alignment of the stack of food products . a main conveying surface configured to move food products , an electronic sensor configured to capture position data about one or more food products on the main conveying surface within a sensor range of the sensor , a robot , and a controller which is signal-connected to the electronic sensor and the robot , and configured to instruct the robot to move a food product from the main conveying surface to a destination position, characterized in that : with respect to the food positioning system: the food products on the main conveying surface comprising a stack of food products , the electronic sensor configured to detect when the stack of food products is not properly stacked or aligned in a vertical direction on the main conveying surface , and the controller configured to instruct the robot to correct the vertical mis-alignment of the stack of food products .
A semiconductor integrated circuit device , comprising: a chip main circuit , coupled to a power source and performing a predetermined function; a damper , coupled to an output terminal of the chip main circuit , wherein the damper is a variable resistor; and a passive component , wherein the passive component is a capacitor; wherein the damper is coupled between the chip main circuit and the passive component for suppressing anti-resonance of the semiconductor integrated circuit device , wherein the power source is configured to provide a minimum system voltage for the semiconductor integrated circuit device to be able to function without crashing, wherein the chip main circuit comprises a processor configured to determine an optimal resistance of the damper by searching for the minimum system voltage, and configured to generate a control signal for controlling resistance of the damper according to the optimal resistance. a chip main circuit , coupled to a power source and performing a predetermined function; a damper , coupled to an output terminal of the chip main circuit , wherein the damper is a variable resistor; and a passive component , wherein the passive component is a capacitor; wherein the damper is coupled between the chip main circuit and the passive component for suppressing anti-resonance of the semiconductor integrated circuit device , wherein the power source is configured to provide a minimum system voltage for the semiconductor integrated circuit device to be able to function without crashing, wherein the chip main circuit comprises a processor configured to determine an optimal resistance of the damper by searching for the minimum system voltage, and configured to generate a control signal for controlling resistance of the damper according to the optimal resistance.
An information display device , comprising: a detection unit that detects a person (H1, H2); a danger level estimation unit that estimates the danger from a subject vehicle of the person (H1, H2) detected by the detection unit ; an in-danger estimation unit that estimates whether or not the person (H1, H2) detected by the detection unit is in danger from the subject vehicle , based on the danger level estimated by the danger level estimation unit ; an illumination unit that illuminates light in the direction of a road surface; a brightness level reduction unit that reduces the brightness level of light to a part of an illuminated portion of the light on the road surface; and a control unit that, when estimated to be in danger by the in-danger estimation unit , controls the brightness level reduction unit such that information urging the driver of the subject vehicle to be careful is displayed by a black cut-out pattern where the brightness level of light is reduced in an illuminated portion of the light on the road surface, wherein the control unit is adapted to control various display states of the black cut-out pattern, wherein the display position on the road surface of the black cut-out pattern indicates the direction of the person (H1, H2) from the subject-vehicle and the illumination position thereof moves in sequence from the subject-vehicle towards the person (H1, H2) estimated to be in danger. a detection unit that detects a person (H1, H2); a danger level estimation unit that estimates the danger from a subject vehicle of the person (H1, H2) detected by the detection unit ; an in-danger estimation unit that estimates whether or not the person (H1, H2) detected by the detection unit is in danger from the subject vehicle , based on the danger level estimated by the danger level estimation unit ; an illumination unit that illuminates light in the direction of a road surface; a brightness level reduction unit that reduces the brightness level of light to a part of an illuminated portion of the light on the road surface; and a control unit that, when estimated to be in danger by the in-danger estimation unit , controls the brightness level reduction unit such that information urging the driver of the subject vehicle to be careful is displayed by a black cut-out pattern where the brightness level of light is reduced in an illuminated portion of the light on the road surface, wherein the control unit is adapted to control various display states of the black cut-out pattern, wherein the display position on the road surface of the black cut-out pattern indicates the direction of the person (H1, H2) from the subject-vehicle and the illumination position thereof moves in sequence from the subject-vehicle towards the person (H1, H2) estimated to be in danger.
A compressor comprising: a compression mechanism ; a driveshaft drivingly engaging the compression mechanism and including a lubricant passage , wherein the lubricant passage includes an inlet , a first outlet , and a second outlet , and wherein the inlet and the first and second outlets are spaced apart from each other in a direction parallel to a rotational axis (R) of the driveshaft such that the first outlet is disposed vertically higher than the inlet and the second outlet is disposed vertically higher than the first outlet ; and an oil allocation member disposed within the lubricant passage and fixed relative to the driveshaft, the compressor characterised by the oil allocation member defining a first channel , a second channel , and a third channel , wherein: the first channel extends through a lower axial end of the oil allocation member and receives lubricant flowing upward from the inlet of the lubricant passage , the second channel receives a first portion of the lubricant from the first channel through an inlet of the second channel and provides the first portion of the lubricant to the first outlet of the lubricant passage , the third channel receives a second portion of the lubricant from the first channel through an inlet of the third channel and provides the second portion of the lubricant to the second outlet of the lubricant passage , and the first portion of the lubricant and the second portion of the lubricant are separated from each other at a location that is vertically higher than the first outlet . a compression mechanism ; a driveshaft drivingly engaging the compression mechanism and including a lubricant passage , wherein the lubricant passage includes an inlet , a first outlet , and a second outlet , and wherein the inlet and the first and second outlets are spaced apart from each other in a direction parallel to a rotational axis (R) of the driveshaft such that the first outlet is disposed vertically higher than the inlet and the second outlet is disposed vertically higher than the first outlet ; and an oil allocation member disposed within the lubricant passage and fixed relative to the driveshaft, the compressor characterised by the oil allocation member defining a first channel , a second channel , and a third channel , the first channel extends through a lower axial end of the oil allocation member and receives lubricant flowing upward from the inlet of the lubricant passage , the second channel receives a first portion of the lubricant from the first channel through an inlet of the second channel and provides the first portion of the lubricant to the first outlet of the lubricant passage , the third channel receives a second portion of the lubricant from the first channel through an inlet of the third channel and provides the second portion of the lubricant to the second outlet of the lubricant passage , and the first portion of the lubricant and the second portion of the lubricant are separated from each other at a location that is vertically higher than the first outlet .