mhurhangee/patent-ind-claim-en huggingface dataset:
A method of verifying the accuracy of a pick and place machine comprising: picking a component with a pick and place nozzle of a pick and place machine , the component including a first magnetic element ; and placing the component on a surface of a test device with the pick and place nozzle , the test device including a second magnetic element , wherein a vacuum holding force of the pick and place nozzle when holding the component exceeds a force of magnetic attraction between the first magnetic element and the second magnetic element after the component is placed on the surface , inspecting the placed component on the surface with a vision detection system of the pick and place machine ; and verifying the accuracy of the placement of the component on the surface with the pick and place machine. picking a component with a pick and place nozzle of a pick and place machine , the component including a first magnetic element ; and placing the component on a surface of a test device with the pick and place nozzle , the test device including a second magnetic element , wherein a vacuum holding force of the pick and place nozzle when holding the component exceeds a force of magnetic attraction between the first magnetic element and the second magnetic element after the component is placed on the surface , inspecting the placed component on the surface with a vision detection system of the pick and place machine ; and verifying the accuracy of the placement of the component on the surface with the pick and place machine.
An inductive position detector comprising a first and a second body, at least one of said bodies being displaceable relative to the other in a measurement direction (x) along a measurement path, said first body comprising one or more antenna windings for transmitting and receiving signals; said first body further comprising an electronic circuit for energising said antenna windings for transmitting signals and for processing signals induced in said antenna windings; wherein said second body comprises a plurality of discrete target areas provided along said measurement path; said discrete target areas being either electrically conductive or magnetically permeable; whereby induced signals vary in accordance with the relative position of the first and second body; wherein said antenna windings and said electronic circuit for energising said antenna windings and for processing signals from said antenna windings are located adjacent to one another; said antenna windings and said electronic circuit being longitudinally arranged and spaced in said measurement direction; whereby they respectively overlap different regions of said plurality of discrete target areas.
Vehicle treatment system comprising a portal with at least two portal columns and a crossmember extending between the portal columns , wherein at least one treatment unit for the surface treatment of a vehicle is arranged on the portal and at least for a time is located in a treatment area arranged below the portal crossmember, and wherein, during a vehicle treatment, a relative movement (F) that is oriented parallel to a longitudinal direction (X) of the treatment area takes place between the portal and the vehicle , and wherein the vehicle treatment system has at least one strip-like support , which is arranged ahead of a portal column in the longitudinal direction (X), wherein the strip-like support is also connected to the portal column or another part of the portal , characterized in that the vehicle treatment system has a detection means , - wherein the detection means is designed to detect a deformation of an elastic mounting of the strip-like support and/or to detect a movement of the strip-like support with respect to a setpoint position; AND/OR - wherein the detection means is designed to detect inadmissible contact between the strip-like support and an external body, in particular by touch-sensitive detection. - wherein the detection means is designed to detect a deformation of an elastic mounting of the strip-like support and/or to detect a movement of the strip-like support with respect to a setpoint position; AND/OR - wherein the detection means is designed to detect inadmissible contact between the strip-like support and an external body, in particular by touch-sensitive detection.
A battery rack capable of stacking a plurality of battery modules in multiple stages, the battery rack comprising: a base plate forming a bottom surface; a main frame combined to the base plate and extending in a height direction to form a wall structure for supporting both side portions of the plurality of battery modules ; and a top plate combined to an uppermost portion of the main frame to form a ceiling, wherein the main frame comprises a pair of a first main frame and a second main frame , which are spaced apart from each other by a width of the plurality of battery modules , and each of the first main frame and the second main frame comprises: a pair of vertical beams spaced apart from each other in a length direction on the base plate and each extending in a height direction; and a plurality of guide beams combined to the pair of vertical beams at regular intervals along the height direction and provided to support a bottom corner region of the plurality of battery modules , characterized in that at least one of the top plate and the base plate is provided in a plate body shape including a bead . a base plate forming a bottom surface; a main frame combined to the base plate and extending in a height direction to form a wall structure for supporting both side portions of the plurality of battery modules ; and a top plate combined to an uppermost portion of the main frame to form a ceiling, wherein the main frame comprises a pair of a first main frame and a second main frame , which are spaced apart from each other by a width of the plurality of battery modules , and each of the first main frame and the second main frame comprises: a pair of vertical beams spaced apart from each other in a length direction on the base plate and each extending in a height direction; and a plurality of guide beams combined to the pair of vertical beams at regular intervals along the height direction and provided to support a bottom corner region of the plurality of battery modules , characterized in that at least one of the top plate and the base plate is provided in a plate body shape including a bead . a pair of vertical beams spaced apart from each other in a length direction on the base plate and each extending in a height direction; and a plurality of guide beams combined to the pair of vertical beams at regular intervals along the height direction and provided to support a bottom corner region of the plurality of battery modules , characterized in that at least one of the top plate and the base plate is provided in a plate body shape including a bead .
Hydraulic compact axle comprising an actuator assembly , a pump assembly (50; 50'), a motor assembly and a volume compensation assembly , which are each arranged concentrically with respect to a longitudinal axis , wherein the actuator assembly , the pump assembly (50; 50'), the motor assembly and the volume compensation assembly are each embodied as a separate assembly, preferably as a separately preassemblable assembly, wherein said assemblies (40; 50; 50'; 80; 90) are arranged in a row along the longitudinal axis , wherein they are fastened to one another exclusively in pairs at their ends, wherein the actuator assembly is arranged at one end of said row, characterized in that said assemblies (40; 50; 50'; 80; 90) are arranged in a row along the longitudinal axis in the sequence: actuator assembly , pump assembly (50; 50'), motor assembly and volume compensation assembly , wherein all of said assemblies (40; 50; 50'; 80; 90) are in each case screwed to one another in pairs via a threaded screw connection , wherein the threaded screw connection in each case comprises an internal thread and an external thread (21; 22), which are formed concentrically with the longitudinal axis , wherein they are screwed to one another. wherein the actuator assembly , the pump assembly (50; 50'), the motor assembly and the volume compensation assembly are each embodied as a separate assembly, preferably as a separately preassemblable assembly, wherein said assemblies (40; 50; 50'; 80; 90) are arranged in a row along the longitudinal axis , wherein they are fastened to one another exclusively in pairs at their ends, wherein the actuator assembly is arranged at one end of said row, characterized in that said assemblies (40; 50; 50'; 80; 90) are arranged in a row along the longitudinal axis in the sequence: actuator assembly , pump assembly (50; 50'), motor assembly and volume compensation assembly , wherein all of said assemblies (40; 50; 50'; 80; 90) are in each case screwed to one another in pairs via a threaded screw connection , wherein the threaded screw connection in each case comprises an internal thread and an external thread (21; 22), which are formed concentrically with the longitudinal axis , wherein they are screwed to one another.
Pulsator assembly for a milking plant comprising: - a pneumatic pulsator which in turn comprises: a body in which channels arranged for the passage of a pneumatic medium are provided; a main shaft which is linearly movable and carries a main slide valve suitable for selectively opening / closing communication clearances between said channels of said body and the milking assembly of said milking plant during the linear movement of said main shaft; means for periodically inverting the movement direction of said main shaft; an adjustment channel for the passage of said pneumatic medium, whereby the minimum cross-section of said adjustment channel determines the frequency at which the movement direction of said main shaft is inverted; - a stimulation device ; and - connecting means for connecting said channels of said pneumatic pulsator to said connecting elements of said stimulation device . characterized in that said stimulation device comprises a body with one or more by-pass channels provided in said body , which by-pass channels are in flow communication with said one or more channels for the passage of the pneumatic medium of said pulsator , said one or more by-pass channels having a section with a minimum cross-section, the diameter of which is greater than the minimum diameter of said one or more channels for the passage of the pneumatic medium of said pulsator , and in that said stimulation device comprises control means for allowing / preventing the flow communication between said by-pass channels and said one or more channels for the passage of the pneumatic medium of said pulsator . - a pneumatic pulsator which in turn comprises: a body in which channels arranged for the passage of a pneumatic medium are provided; a main shaft which is linearly movable and carries a main slide valve suitable for selectively opening / closing communication clearances between said channels of said body and the milking assembly of said milking plant during the linear movement of said main shaft; means for periodically inverting the movement direction of said main shaft; an adjustment channel for the passage of said pneumatic medium, whereby the minimum cross-section of said adjustment channel determines the frequency at which the movement direction of said main shaft is inverted; a body in which channels arranged for the passage of a pneumatic medium are provided; a main shaft which is linearly movable and carries a main slide valve suitable for selectively opening / closing communication clearances between said channels of said body and the milking assembly of said milking plant during the linear movement of said main shaft; means for periodically inverting the movement direction of said main shaft; an adjustment channel for the passage of said pneumatic medium, whereby the minimum cross-section of said adjustment channel determines the frequency at which the movement direction of said main shaft is inverted; - a stimulation device ; and - connecting means for connecting said channels of said pneumatic pulsator to said connecting elements of said stimulation device .
A unit dose composition comprising: a water-soluble container formed from a water-soluble or water-dispersible film material; an aqueous composition comprising: water present in an amount of 30% to 55% by weight; a surfactant system present in an amount of 30% to 60% by weight, wherein the anionic surfactant and the non-ionic surfactant are present in a weight ratio of from 1:9 to 9:1; and a water binding agent selected from the group consisting of a salt, the salt being sodium chloride, wherein the water binding agent is present in an amount of from 1% to 10% by weight; wherein the aqueous composition has a water activity of from 0.65 to 0.95, and wherein the surfactant system comprises: a linear alkylbenzene sulfonate (LAS) and/or an alcohol ethoxylsulfate (AES), an alcohol ethoxylate (AE), and a fatty acid and wherein the surfactant system contains from 1 to 15 wt% of fatty acid. a water-soluble container formed from a water-soluble or water-dispersible film material; an aqueous composition comprising: water present in an amount of 30% to 55% by weight; a surfactant system present in an amount of 30% to 60% by weight, wherein the anionic surfactant and the non-ionic surfactant are present in a weight ratio of from 1:9 to 9:1; and a water binding agent selected from the group consisting of a salt, the salt being sodium chloride, wherein the water binding agent is present in an amount of from 1% to 10% by weight; wherein the aqueous composition has a water activity of from 0.65 to 0.95, and wherein the surfactant system comprises: a linear alkylbenzene sulfonate (LAS) and/or an alcohol ethoxylsulfate (AES), an alcohol ethoxylate (AE), and a fatty acid and wherein the surfactant system contains from 1 to 15 wt% of fatty acid. water present in an amount of 30% to 55% by weight; a surfactant system present in an amount of 30% to 60% by weight, wherein the anionic surfactant and the non-ionic surfactant are present in a weight ratio of from 1:9 to 9:1; and a water binding agent selected from the group consisting of a salt, the salt being sodium chloride, wherein the water binding agent is present in an amount of from 1% to 10% by weight; wherein the aqueous composition has a water activity of from 0.65 to 0.95, and wherein the surfactant system comprises: a linear alkylbenzene sulfonate (LAS) and/or an alcohol ethoxylsulfate (AES), an alcohol ethoxylate (AE), and a fatty acid a linear alkylbenzene sulfonate (LAS) and/or an alcohol ethoxylsulfate (AES), an alcohol ethoxylate (AE), and a fatty acid and wherein the surfactant system contains from 1 to 15 wt% of fatty acid.
A rheology module for use in a magnetic resonance (MR) rheology imaging system , whereby the rheology module is adapted to introduce mechanical oscillations into a subject of interest , comprising a housing , a mechanical oscillator unit , which is arranged at least partially inside the housing, extends at least partially outside the housing and is movable as a whole relative to the housing , and a transducer for moving the oscillator unit , whereby the rheology module comprises at least two radio frequency (RF) antenna units , each of which comprises at least one RF coil , whereby a first of the at least two RF antenna units is located on or in the housing , and characterized in that a second of the at least two RF antenna units is located on or in the oscillator unit .
An integrated pump system comprising: an electronically controlled motor ; a controller for controlling a speed and a torque of the motor; a pump directly coupled to the electronically controlled motor for pumping high pressure hydraulic fluid through a first output port to a work function ; and a cooling fluid channel interfaced with electronics of the controller and the motor , wherein low pressure hydraulic fluid returning from the work function is conveyed through the cooling fluid channel to cool the electronics of the controller and the motor , a housing having channels for hydraulic fluid which define a high pressure path for supply of hydraulic fluid to the work function and a low pressure path for returning hydraulic fluid from the work function , and a hydraulic fluid reservoir from which hydraulic fluid is pumped via the high pressure path, and to which hydraulic fluid is returned via the low pressure path, wherein a part of the low pressure path is composed by the cooling fluid channel , such that hydraulic fluid is led from the work function through the cooling fluid channel , and hydraulic fluid exiting the cooling fluid channel is led towards the hydraulic fluid reservoir , wherein the low pressure path is designed to allow the hydraulic fluid to directly flow from the work function towards the hydraulic fluid reservoir . an electronically controlled motor ; a controller for controlling a speed and a torque of the motor; a pump directly coupled to the electronically controlled motor for pumping high pressure hydraulic fluid through a first output port to a work function ; and a cooling fluid channel interfaced with electronics of the controller and the motor , wherein low pressure hydraulic fluid returning from the work function is conveyed through the cooling fluid channel to cool the electronics of the controller and the motor , a housing having channels for hydraulic fluid which define a high pressure path for supply of hydraulic fluid to the work function and a low pressure path for returning hydraulic fluid from the work function , and a hydraulic fluid reservoir from which hydraulic fluid is pumped via the high pressure path, and to which hydraulic fluid is returned via the low pressure path, wherein a part of the low pressure path is composed by the cooling fluid channel , such that hydraulic fluid is led from the work function through the cooling fluid channel , and hydraulic fluid exiting the cooling fluid channel is led towards the hydraulic fluid reservoir , wherein the low pressure path is designed to allow the hydraulic fluid to directly flow from the work function towards the hydraulic fluid reservoir .
Method for detecting an incorrect installation of brake lines in a brake system for a multi-axle motor vehicle, wherein the brake system comprises a primary circuit having a first ESP subsystem , comprising a primary reservoir for brake fluid and at least one outlet valve assigned to the wheel brakes (VL, VR) of a first axle, and comprises a secondary circuit having a second ESP subsystem , comprising a secondary reservoir for brake fluid and at least one outlet valve assigned to the wheel brakes (HL, HR) of a second axle, wherein the primary circuit provides a larger brake fluid volume than the secondary circuit , and wherein two brake lines correspondingly connect a tandem main brake cylinder to the primary circuit and the secondary circuit respectively, characterised in that in a first step, the tandem main brake cylinder is actuated in a pressure-building way with opened outlet valves in order to completely fill the primary reservoir and the secondary reservoir with brake fluid, wherein the outlet valves are closed as soon as the reservoirs are completely filled, and in a further step, at least one rotating wheel of the first axle is braked by sustained actuation of the tandem main brake cylinder , wherein a measuring device identifies a correct or defective installation of the brake lines depending on the braking behaviour.
A system comprising: a display system ; and a control system communicatively coupled to the display system , the control system configured to: receive anatomic image data for an anatomic tree structure; generate an initial segmentation of the anatomic image data, the initial segmentation including a trunk structure and a branched structure unconnected to the trunk structure; and determine whether to connect the branched structure to the trunk structure based on an assessment of a shape of the branched structure and an assessment of a relationship between the trunk structure and the branched structure, wherein the assessment of the shape of the branched structure is based on a number of bifurcations or branched members of the branched structure. a display system ; and a control system communicatively coupled to the display system , the control system configured to: receive anatomic image data for an anatomic tree structure; generate an initial segmentation of the anatomic image data, the initial segmentation including a trunk structure and a branched structure unconnected to the trunk structure; and determine whether to connect the branched structure to the trunk structure based on an assessment of a shape of the branched structure and an assessment of a relationship between the trunk structure and the branched structure, wherein the assessment of the shape of the branched structure is based on a number of bifurcations or branched members of the branched structure. receive anatomic image data for an anatomic tree structure; generate an initial segmentation of the anatomic image data, the initial segmentation including a trunk structure and a branched structure unconnected to the trunk structure; and determine whether to connect the branched structure to the trunk structure based on an assessment of a shape of the branched structure and an assessment of a relationship between the trunk structure and the branched structure, wherein the assessment of the shape of the branched structure is based on a number of bifurcations or branched members of the branched structure.
Work machine having at least one hydraulic actuator for actuating a piece of working equipment, further hydraulic consumers , two displacement consumers driven by drive assembly of the work machine, and a control block , wherein the first displacement unit feeds the control block with hydraulic medium from a hydraulic tank, the second displacement unit in the working mode feeds the control block with hydraulic medium from a hydraulic tank, and is drivable during a recovery mode by the hydraulic volume displaced by the at least one hydraulic actuator or by a hydraulic consumer in order to feed kinetic energy back to the drive assembly and the control block connects the pressure lines of the first and second displacement unit with the hydraulic actuator and the further consumers , wherein at least one first ski selector valve having at least two switch positions is provided whose first switch position releases the flow from the second displacement unit to the control block and whose second switch position interrupts a volume flow between the second displacement unit and the control block , and wherein at least one second ski selector valve having at least two switch positions is provided via which a direct connection between the at least one hydraulic actuator and the second displacement unit , in particular a volume flow from the actuator to the second displacement unit , can be released or blocked.