mhurhangee/patent-ind-claim-en huggingface dataset:
Workpiece manipulator for use with a radial forging press, with a workpiece gripper , wherein the workpiece gripper is secured to a manipulator frame linearly guided on a manipulator travel track and wherein the workpiece gripper forms a clamping chuck with a fixed clamping axis which extends in the forging axis, so that the workpiece can be manipulated with a linear translation movement, wherein the manipulator frame during the translation movement is rail-guided on track wheels , characterised in that the manipulator frame comprises a chassis which is sprung and/or damped.
A helical conveyor , comprising a drivable endless conveyor belt having a transport section for transporting products where the conveyor belt follows at least partly a helical path between a lower end and an upper end of the transport section and a return section where the conveyor belt follows a path between the lower end and the upper end outside the transport section, a lower end reverse guide for turning the conveyor belt upside down and reverting its direction of movement between the transport section and the return section at the lower end of the transport section and an upper end reverse guide for turning the conveyor belt upside down and reverting its direction of movement between the transport section and the return section at the upper end of the transport section, wherein the return section leaves the upper end through a horizontally oriented upper return section portion and the return section leaves the lower end through a horizontally oriented lower return section portion , wherein the return section has an upwardly directed return section portion which forms a connection between the upper return section portion and the lower return section portion and extends at least partly outside the helical path as seen from above, characterized in that the return section has an upwardly directed bend between the upper return section portion and the upwardly directed return section portion , on the one hand, and an upwardly directed bend between the lower return section portion and the upwardly directed return section portion , on the other hand, and wherein the upwardly directed return section portion bends within the plane of the conveyor belt .
Method for detecting particles in glass, in particular metallic particles in glass, in particular in flat glass panes, characterized in that laser radiation is shone through the glass at least in one region, said laser radiation being absorbed less by the glass than by particles present in the glass, and, should particles be present in the region through which the laser has shone, heating of at least the respective particle, in particular stronger heating of glass surroundings near a particle in relation to glass surroundings further away from a particle, is hereby produced and this heating is captured in spatially resolved fashion by means of at least one thermal imaging camera, which captures electromagnetic waves in the infrared range, and the position of the respective particle in the glass is determined from the captured heating and wherein, while the laser light is shone through and/or thereafter, the change in temperature is captured as a function of time in spatially resolved fashion in the region through which laser light has been shone and particles whose spatial position has been determined on the basis of the heating are identified in respect of their chemical composition depending on a temperature-time characteristic measured at least at this location, for the purposes of which a determined temperature-time characteristic is compared to a plurality of stored temperature-time characteristics of known particle types.
A method for partially reconfiguring a plurality of acceleration components composed in a graph to accelerate a service; wherein each acceleration component comprises a plurality of programmable logic blocks and a plurality of reconfigurable interconnects, wherein a first acceleration component is configurable to provide a first role associated with the service and a second acceleration component is configurable to provide a second role associated with the service, and wherein the first acceleration component is coupled to a first network interface operable to allow exchange of network traffic, and wherein the second acceleration component is coupled to a second network interface operable to allow the exchange of the network traffic, the method comprising: halting the first role associated with the first acceleration component; partially reconfiguring the first acceleration component by reprogramming at least a subset of the plurality of programable blocks and a subset of the plurality of reconfigurable interconnects of the first acceleration component; maintaining each of the first network interface, the second network interface and the second role associated with the second acceleration component operational during partially reconfiguring the first acceleration component; and activating the first role at the first acceleration component after partially reconfiguring the first acceleration component is complete. halting the first role associated with the first acceleration component; partially reconfiguring the first acceleration component by reprogramming at least a subset of the plurality of programable blocks and a subset of the plurality of reconfigurable interconnects of the first acceleration component; maintaining each of the first network interface, the second network interface and the second role associated with the second acceleration component operational during partially reconfiguring the first acceleration component; and activating the first role at the first acceleration component after partially reconfiguring the first acceleration component is complete.
Work machine , in particular mobile rotary drilling, pile driving or drilling machine, comprising a mobile undercarriage , an upper carriage , a leader mounted on the upper carriage , and an attachment , wherein the leader is pivotably mounted on the upper carriage by means of a leader kinematic system and wherein the attachment can be mounted in an operating position on a front side of the leader facing away from the upper carriage , wherein the attachment is detachable from the front side of the leader , characterized in that the leader comprises receiving means by which the attachment can be mounted for transport on a rear side of the leader facing the upper carriage or laterally on the leader in a transport position, so that the attachment is arranged on the rear side of the leader between the leader and the floor.
A method of indicating a critical level of a liquid flow through a conduit length , which is provided with or designed as a throttle the size of which is varied characterised in that, on change of the liquid flow, such vibrations as occur or increase and cease or decrease, respectively, when the flow through the throttle is changed and switches from laminate to turbulent flow or the reverse, are sensed and employed as an indicator of the volume flow, and that a screen wall with an aperture which is larger than the throttle is disposed, in the conduit length and a distance from the throttle , whereby there is formed in the conduit length a resonance chamber for amplifying vibrations.
A cytological fixative solution, comprising: Azure B; a surfactant; methanol; and ethylene glycol. Azure B; a surfactant; methanol; and ethylene glycol.
A user equipment comprising: a user interface configured to receive an input of a food model comprising at least one of a shape, an ingredient, or a color of a food in accordance with a touch input of a user; a transceiver configured to transmit information of the food model to a cooking apparatus capable of shaping and heating the food; and a first processor configured to transmit the information of the food model to the cooking apparatus via the transceiver to allow the cooking apparatus to shape the food according to the food model, wherein the user interface is further configured to display: an automatic cooking button for selecting a predetermined food shape, a draw button for inputting a food shape drawn on the user interface by the user, a cooking method button for inputting a cooking method for the food, and an output button for outputting the food in accordance with the food shape and the cooking method, wherein the first processor is further configured to display a preview of the food, and wherein the preview of food represents an appearance of the food after cooking by the cooking apparatus according to a heating temperature and a heating time input by the user. a user interface configured to receive an input of a food model comprising at least one of a shape, an ingredient, or a color of a food in accordance with a touch input of a user; a transceiver configured to transmit information of the food model to a cooking apparatus capable of shaping and heating the food; and a first processor configured to transmit the information of the food model to the cooking apparatus via the transceiver to allow the cooking apparatus to shape the food according to the food model, wherein the user interface is further configured to display: an automatic cooking button for selecting a predetermined food shape, a draw button for inputting a food shape drawn on the user interface by the user, a cooking method button for inputting a cooking method for the food, and an output button for outputting the food in accordance with the food shape and the cooking method, an automatic cooking button for selecting a predetermined food shape, a draw button for inputting a food shape drawn on the user interface by the user, a cooking method button for inputting a cooking method for the food, and an output button for outputting the food in accordance with the food shape and the cooking method, wherein the first processor is further configured to display a preview of the food, and wherein the preview of food represents an appearance of the food after cooking by the cooking apparatus according to a heating temperature and a heating time input by the user.
A method of separating glycopeptides, comprising: contacting a sample comprising glycopeptides to a hydrophilic enrichment substrate under conditions that permit the glycopeptides to bind to the hydrophilic enrichment substrate; washing the hydrophilic enrichment substrate to remove non-glycopeptide contaminants from the hydrophilic enrichment substrate; eluting the glycopeptides from the hydrophilic enrichment substrate with an ammonium formate and acetonitrile (ACN) in water solution to create an enriched glycopeptide sample; applying the enriched glycopeptide sample to a separation column; and eluting the glycopeptides from the separation column, thereby separating glycopeptides in the sample. contacting a sample comprising glycopeptides to a hydrophilic enrichment substrate under conditions that permit the glycopeptides to bind to the hydrophilic enrichment substrate; washing the hydrophilic enrichment substrate to remove non-glycopeptide contaminants from the hydrophilic enrichment substrate; eluting the glycopeptides from the hydrophilic enrichment substrate with an ammonium formate and acetonitrile (ACN) in water solution to create an enriched glycopeptide sample; applying the enriched glycopeptide sample to a separation column; and eluting the glycopeptides from the separation column, thereby separating glycopeptides in the sample.
A gas turbine engine component (50;150;250;350;450) comprising a body portion (52;152;252;352;452) that includes a first wall (58;158;258;358;458) spaced apart from a second wall (60;160;260;360;460) and disposed about a centerline axis (CA) of the cross section of the component, wherein the first wall is a pressure side wall and the second wall is a suction side wall; at least one rib (74;174;274;374;474) that extends between said first wall (58;158;258;358;458) and said second wall (60;160;260;360;460), wherein said at least one rib (74;174;274;374;474) extends along a rib axis (RA) that is transversely angled relative to said centerline axis (CA); and at least one impingement hole (78;178;278;378;478) that extends through said at least one rib (74;174;274;374;474) in a direction that is generally perpendicular to said rib axis (RA), and wherein said at least one impingement hole (78;178;278;378;478) is oriented toward said first wall (58;158;258;358;458), or is oriented toward said second wall (60;160;260;360;460); wherein the at least one impingement hole is configured to communicate a cooling airflow to impinge upon an interior surface of the second wall; and characterized in that said at least one rib (74;174;274;374;474) includes a first impingement hole (78;178;278;378;478) that is oriented toward said first wall (58;158;258;358;458) and a second impingement hole (78;178;278;378;478) that is oriented toward said second wall (60;160;260;360;460); wherein the second impingement hole is located at a different radial location of the rib than the first impingement hole. a body portion (52;152;252;352;452) that includes a first wall (58;158;258;358;458) spaced apart from a second wall (60;160;260;360;460) and disposed about a centerline axis (CA) of the cross section of the component, wherein the first wall is a pressure side wall and the second wall is a suction side wall; at least one rib (74;174;274;374;474) that extends between said first wall (58;158;258;358;458) and said second wall (60;160;260;360;460), wherein said at least one rib (74;174;274;374;474) extends along a rib axis (RA) that is transversely angled relative to said centerline axis (CA); and at least one impingement hole (78;178;278;378;478) that extends through said at least one rib (74;174;274;374;474) in a direction that is generally perpendicular to said rib axis (RA), and wherein said at least one impingement hole (78;178;278;378;478) is oriented toward said first wall (58;158;258;358;458), or is oriented toward said second wall (60;160;260;360;460); wherein the at least one impingement hole is configured to communicate a cooling airflow to impinge upon an interior surface of the second wall; and characterized in that said at least one rib (74;174;274;374;474) includes a first impingement hole (78;178;278;378;478) that is oriented toward said first wall (58;158;258;358;458) and a second impingement hole (78;178;278;378;478) that is oriented toward said second wall (60;160;260;360;460); wherein the second impingement hole is located at a different radial location of the rib than the first impingement hole.
A fan platform comprising: a platform body having gaspath and non-gaspath sides , leading and trailing ends , first and second circumferential sides that are contoured to follow profiles of adjacent fan blades , and lugs projecting from the non-gaspath side and defining fastener openings , wherein the platform body comprises a core , wherein the core is formed of a material selected from the group consisting of honeycomb, foam, and combinations thereof. characterised in that a fiber-reinforced polymer matrix composite skin attached on the core at least on portions of the gaspath and non-gaspath sides , an environmental barrier layer disposed on at least a portion of the core that does not have the skin , and wherein the environmental barrier layer is an elastomer material. a platform body having gaspath and non-gaspath sides , leading and trailing ends , first and second circumferential sides that are contoured to follow profiles of adjacent fan blades , and lugs projecting from the non-gaspath side and defining fastener openings , gaspath and non-gaspath sides , leading and trailing ends , first and second circumferential sides that are contoured to follow profiles of adjacent fan blades , and lugs projecting from the non-gaspath side and defining fastener openings , wherein the platform body comprises a core , wherein the core is formed of a material selected from the group consisting of honeycomb, foam, and combinations thereof. characterised in that a fiber-reinforced polymer matrix composite skin attached on the core at least on portions of the gaspath and non-gaspath sides , an environmental barrier layer disposed on at least a portion of the core that does not have the skin , and wherein the environmental barrier layer is an elastomer material.
A forming station for a thermoform packaging machine , wherein the forming station comprises a forming tool upper part and a forming tool lower part , which are configured for cooperating so as to thermoform a film positioned between the forming tool lower part and the forming tool upper part , characterized by a first change bar , which is adapted to be releasably attached to a reception area of the forming tool lower part provided laterally on the forming tool lower part and which carries a plurality of punches or blades , wherein a position of the punches or of the blades relative to one another is determined by their position on the first change bar , and wherein by attaching or removing the first change bar , the forming station can be changed over between an operating mode in which slits or holes are cut into the film during thermoforming and an operating mode in which no cutting of slits or holes takes place.
An apparatus for processing a semiconductor workpiece including: a first chamber having a first plasma production source and a first gas supply for introducing a supply of gas into the first chamber; a second chamber having a second plasma production source and a second gas supply for introducing a supply of gas into the second chamber, the second gas supply being independently controllable of the first gas supply; a workpiece support positioned in the second chamber; a plurality of gas flow pathway defining elements arranged to define a gas flow pathway in the vicinity of the workpiece when positioned on the workpiece support, wherein the gas flow pathway defining elements include at least one wafer edge region protection element for protecting the edge of the wafer and/or a region outwardly circumjacent to the edge of the wafer, and at least one auxiliary element spaced apart from the at least one wafer edge region protection element such that the gas flow pathway is defined; characterized in that the at least one auxiliary element is spaced apart from the at least one wafer edge region protection element such that a gap of between 5 and 50 mm is defined. a first chamber having a first plasma production source and a first gas supply for introducing a supply of gas into the first chamber; a second chamber having a second plasma production source and a second gas supply for introducing a supply of gas into the second chamber, the second gas supply being independently controllable of the first gas supply; a workpiece support positioned in the second chamber; a plurality of gas flow pathway defining elements arranged to define a gas flow pathway in the vicinity of the workpiece when positioned on the workpiece support, wherein the gas flow pathway defining elements include at least one wafer edge region protection element for protecting the edge of the wafer and/or a region outwardly circumjacent to the edge of the wafer, and at least one auxiliary element spaced apart from the at least one wafer edge region protection element such that the gas flow pathway is defined; characterized in that the at least one auxiliary element is spaced apart from the at least one wafer edge region protection element such that a gap of between 5 and 50 mm is defined.
A feeding set suitable for use with an enteral feeding pump to deliver nutritional liquid to a patient, the enteral feeding pump including a reader operatively connected to a processor and configured to read an identification member of the feeding set to identify at least one characteristic of the nutritional liquid associated with the feeding set upon engagement of the feeding set with a housing of the feeding pump , the feeding set comprising: a container having the nutritional liquid; tubing in fluid communication with the container and being adapted for mounting on the enteral feeding pump , the tubing providing a fluid pathway for delivering the nutritional liquid from the container to the patient; and characterised in that the feeding set further comprises: the identification member representative of the nutritional liquid in the container , the identification member configured to permit identification by the enteral feeding pump of at least one characteristic of the nutritional liquid upon mounting of the identification member on the enteral feeding pump ; wherein the at least one characteristic comprises viscosity of the nutritional liquid, or caloric content of the nutritional liquid. a container having the nutritional liquid; tubing in fluid communication with the container and being adapted for mounting on the enteral feeding pump , the tubing providing a fluid pathway for delivering the nutritional liquid from the container to the patient; and characterised in that the feeding set further comprises: the identification member representative of the nutritional liquid in the container , the identification member configured to permit identification by the enteral feeding pump of at least one characteristic of the nutritional liquid upon mounting of the identification member on the enteral feeding pump ; wherein the at least one characteristic comprises viscosity of the nutritional liquid, or caloric content of the nutritional liquid. the identification member representative of the nutritional liquid in the container , the identification member configured to permit identification by the enteral feeding pump of at least one characteristic of the nutritional liquid upon mounting of the identification member on the enteral feeding pump ; wherein the at least one characteristic comprises viscosity of the nutritional liquid, or caloric content of the nutritional liquid.
A unit load device inerting system for including on-board an aircraft comprising: a nitrogen generation system ; a first conduit coupled to the nitrogen generation system and configured to carry nitrogen gas; a unit load device ; an inlet located downstream of the first conduit , wherein the inlet is attached to the unit load device to deliver the nitrogen gas into the unit load device ; an outlet attached to the unit load device ; and a second conduit coupled to the outlet , wherein the second conduit is configured to carry nitrogen gas out of the unit load device ; and a computer controller coupled to the nitrogen generation system and configured to control the nitrogen generation system to deliver the nitrogen into the unit load device (i) prior to take-off of the aircraft, and (ii) for an entire duration of the flight or for an entire duration of the flight except during a portion of descent. a nitrogen generation system ; a first conduit coupled to the nitrogen generation system and configured to carry nitrogen gas; a unit load device ; an inlet located downstream of the first conduit , wherein the inlet is attached to the unit load device to deliver the nitrogen gas into the unit load device ; an outlet attached to the unit load device ; and a second conduit coupled to the outlet , wherein the second conduit is configured to carry nitrogen gas out of the unit load device ; and a computer controller coupled to the nitrogen generation system and configured to control the nitrogen generation system to deliver the nitrogen into the unit load device (i) prior to take-off of the aircraft, and (ii) for an entire duration of the flight or for an entire duration of the flight except during a portion of descent.