mhurhangee/ep-ind-claims huggingface dataset:
Vacuum cleaner suction head, comprising a sole provided with a lower face and a cavity opening onto this lower face, at least one brush (13, 14), a shaft for connecting configured to communicate with the cavity and a fork arranged between the sole and the shaft and mounted as pivot connections of transverse axes (X1, X2) opposite said sole and said shaft, characterised in that said suction head comprises a mechanism and a lever, said lever being configured to actuate said mechanism according to three positions, said mechanism being configured to: - in the first position, lower the at least one brush (13, 14) and position it protruding from the lower face by allowing the fork to pivot with respect to the sole; - in the second position, raise the at least one brush (13, 14) and position it retracted from the lower face by allowing the fork to pivot with respect to the sole; - in the third position, maintain the at least one brush (13, 14) retracted from the lower face by blocking the fork opposite the sole. - in the first position, lower the at least one brush (13, 14) and position it protruding from the lower face by allowing the fork to pivot with respect to the sole; - in the second position, raise the at least one brush (13, 14) and position it retracted from the lower face by allowing the fork to pivot with respect to the sole; - in the third position, maintain the at least one brush (13, 14) retracted from the lower face by blocking the fork opposite the sole.
An open-irrigated catheter system for performing mapping and ablation functions, comprising: a tip section (102; 202; 526) having an exterior wall that defines an open interior region within the tip section, wherein the exterior wall includes at least three mapping electrode openings and a plurality of irrigation ports (115; 415), and wherein the exterior wall is conductive for delivering radio frequency energy for an RF ablation procedure, wherein the irrigation ports are in fluid communication with the open interior region to allow fluid to flow from the open interior region through the irrigation ports (115; 415); a distal insert (104; 204; 419; 529) positioned within the tip section to separate the open region into a distal fluid reservoir (106; 206) and a proximal fluid reservoir (105; 205), the distal insert (104; 204; 419; 529) defining a fluid conduit extending from the distal fluid reservoir to the proximal fluid reservoir; at least three mapping electrodes positioned in the at least three mapping electrode openings, the distal insert (104; 204; 419; 529) having a peripheral surface with openings therein sized to receive the mapping electrodes; and at least three noise artifact isolators (108; 208; 535) fabricated from an electrical insulator, wherein the mapping electrodes are electrically insulated from the exterior wall of the tip section by the noise artifact isolators (108; 208; 535). a tip section (102; 202; 526) having an exterior wall that defines an open interior region within the tip section, wherein the exterior wall includes at least three mapping electrode openings and a plurality of irrigation ports (115; 415), and wherein the exterior wall is conductive for delivering radio frequency energy for an RF ablation procedure, wherein the irrigation ports are in fluid communication with the open interior region to allow fluid to flow from the open interior region through the irrigation ports (115; 415); a distal insert (104; 204; 419; 529) positioned within the tip section to separate the open region into a distal fluid reservoir (106; 206) and a proximal fluid reservoir (105; 205), the distal insert (104; 204; 419; 529) defining a fluid conduit extending from the distal fluid reservoir to the proximal fluid reservoir; at least three mapping electrodes positioned in the at least three mapping electrode openings, the distal insert (104; 204; 419; 529) having a peripheral surface with openings therein sized to receive the mapping electrodes; and at least three noise artifact isolators (108; 208; 535) fabricated from an electrical insulator, wherein the mapping electrodes are electrically insulated from the exterior wall of the tip section by the noise artifact isolators (108; 208; 535).
A vulcanizable rubber composition comprising a vegetable oil derivative comprising the structure where R 1, R 2 and R 3 are independently selected from a C15 to C20 alkenyl or a C15 to C20 alkyl, and optionally contain aromatic groups; R is - O - C(=O) - R 4 where R 4 is a C15 to C20 alkenyl; wherein each R is covalently bonded to a first carbon atom of one of R 1, R 2 or R 3; wherein a second carbon atom is adjacent to the first carbon atom and the second carbon atom is substituted with an -OH group; and wherein m is the number of R groups.
An insertion component positioning inspection method for determining whether an insertion component provided with a positioning-use protruding section and a surface-mounting-use electrode section can be inserted into a circuit board provided with a positioning hole into which the positioning-use protruding section is inserted and a land for connecting to the surface-mounting-use electrode section, the insertion component positioning inspection method characterized by: capturing an image of the positioning-use protruding section and the surface-mounting-use electrode section of the insertion component either separately or simultaneously using a component imaging camera and processing the captured image to recognize positions of the positioning-use protruding section and the surface-mounting-use electrode section; and calculating a position deviation amount between the surface-mounting-use electrode section of the insertion component and the land of the circuit board based on an assumption that the positioning-use protruding section of the insertion component is inserted into the positioning hole of the circuit board, and determining (105, 107) whether the insertion component can be mounted on the circuit board by determining whether the position deviation amount is within a tolerance range. capturing an image of the positioning-use protruding section and the surface-mounting-use electrode section of the insertion component either separately or simultaneously using a component imaging camera and processing the captured image to recognize positions of the positioning-use protruding section and the surface-mounting-use electrode section; and calculating a position deviation amount between the surface-mounting-use electrode section of the insertion component and the land of the circuit board based on an assumption that the positioning-use protruding section of the insertion component is inserted into the positioning hole of the circuit board, and determining (105, 107) whether the insertion component can be mounted on the circuit board by determining whether the position deviation amount is within a tolerance range.
Connection apparatus of a tool to an arm of a heavy machine, said apparatus comprising a quick coupling adapted to be coupled with said arm and an adapter adapted to be fastened to said tool, said quick coupling comprising a main body, substantially box-shaped, provided with an inner compartment containing actuator means of at least one bolt element adapted to engage with a first complementary pin extending along a first predefined direction and provided on said adapter; said at least one bolt element being shaped so as to receive therein at least a double-acting hydraulic actuation system adapted to translate said at least one bolt element rectilinearly and along a direction perpendicular to said first predefined direction from a retracted disengaged position to an extended position engaged with said first pin of said adapter, so that the thrust exerted by said hydraulic actuation system has an operating axis substantially coincident with a longitudinal axis of said at least one bolt element; characterized in that the quick coupling comprises an auxiliary locking device comprising in turn at least one auxiliary locking element, and in that said at least one auxiliary locking element can be translated rectilinearly along a direction parallel to said direction forward from a retracted position to a forward position of engagement with a second corresponding pin element of said adapter, said second pin being spaced apart from and parallel to said first pin, and in that the direction of forward movement of said at least one auxiliary locking element is opposite that of said at least one bolt element.
A wireless telephone sound interface device (2, 22) comprising an electronic circuit, a first wireless transceiver adapted to exchange audio signals with a base unit (3, 23) through a wireless audio connection (4, 24) and a device controller adapted to detect a disconnection of the wireless audio connection (4, 24) and to control the electronic circuit in dependence on detecting said disconnection, characterized in that the device controller further is adapted to estimate a disconnection cause for said disconnection in dependence on one or more sensor signals, such as a motion signal from a motion sensor, a link quality signal from a wireless transceiver, a docking signal from a docking sensor and/or a power-down signal from a wireless transceiver, and to control the electronic circuit in dependence on the estimated disconnection cause.
A contact lens comprising: a hydrogel skirt (620, 820), wherein the hydrogel skirt is molded into a shape of the contact lens, with an arcuate back surface placed proximate to a user's cornea during a use of the contact lens; an encapsulated hard lens element (184, 610, 810), wherein the encapsulated hard lens element is gas impermeable and impermeable to fluid flow through its body, wherein the encapsulated hard lens element is encapsulated within the hydrogel skirt; a first region of the hydrogel skirt, wherein the first region of the hydrogel skirt is that portion of the hydrogel skirt that is between a surface of the encapsulated hard lens element and a cornea of a user during the use of the contact lens; and a means within the contact lens of enhancing oxygen levels within a fluid in contact with the first region, wherein the means within the contact lens of enhancing oxygen levels comprises a layer of absorptive material (310, 830), wherein the absorptive material absorbs oxygen gas and wherein the absorptive material comprises hemoglobin or hemocyanin. a hydrogel skirt (620, 820), wherein the hydrogel skirt is molded into a shape of the contact lens, with an arcuate back surface placed proximate to a user's cornea during a use of the contact lens; an encapsulated hard lens element (184, 610, 810), wherein the encapsulated hard lens element is gas impermeable and impermeable to fluid flow through its body, wherein the encapsulated hard lens element is encapsulated within the hydrogel skirt; a first region of the hydrogel skirt, wherein the first region of the hydrogel skirt is that portion of the hydrogel skirt that is between a surface of the encapsulated hard lens element and a cornea of a user during the use of the contact lens; and a means within the contact lens of enhancing oxygen levels within a fluid in contact with the first region, wherein the means within the contact lens of enhancing oxygen levels comprises a layer of absorptive material (310, 830), wherein the absorptive material absorbs oxygen gas and wherein the absorptive material comprises hemoglobin or hemocyanin.
A reverse shoulder assembly comprising: a first component having a top surface, a bottom surface, a side surface connecting the top and bottom surfaces (22, 24), and at least one borehole extending through the top and bottom surfaces (22, 24); a second component (50; 50') having first and second circumferential recesses (58, 62; 58', 62'), the first circumferential recess (58; 58') defining a tapered wall having a minimum diameter at a base of the tapered wall, the second circumferential recess (62; 62') defining a circumferential wall having a constant diameter, the constant diameter of the circumferential wall being less than the minimum diameter of the tapered wall, the first and second circumferential recesses (58, 62; 58', 62') being in communication with one another; and a third component having a head portion and a body portion, the third component configured to be received at least partially within the at least one borehole of the first component, characterized in that at least a portion of the head portion of the third component extends outwardly from the top surface of the first component when the third component is engaged to the at least one borehole of the first component such that the head portion can be slip-fit into the second circumferential recess of the second component and into engagement with the circumferential wall thereof, thereby guiding the engagement of the side surface of the first component into the first circumferential recess (58; 58') prior to engagement of the side surface of the first component with the tapered wall of the second component (50; 50'). a first component having a top surface, a bottom surface, a side surface connecting the top and bottom surfaces (22, 24), and at least one borehole extending through the top and bottom surfaces (22, 24); a second component (50; 50') having first and second circumferential recesses (58, 62; 58', 62'), the first circumferential recess (58; 58') defining a tapered wall having a minimum diameter at a base of the tapered wall, the second circumferential recess (62; 62') defining a circumferential wall having a constant diameter, the constant diameter of the circumferential wall being less than the minimum diameter of the tapered wall, the first and second circumferential recesses (58, 62; 58', 62') being in communication with one another; and a third component having a head portion and a body portion, the third component configured to be received at least partially within the at least one borehole of the first component, characterized in that at least a portion of the head portion of the third component extends outwardly from the top surface of the first component when the third component is engaged to the at least one borehole of the first component such that the head portion can be slip-fit into the second circumferential recess of the second component and into engagement with the circumferential wall thereof, thereby guiding the engagement of the side surface of the first component into the first circumferential recess (58; 58') prior to engagement of the side surface of the first component with the tapered wall of the second component (50; 50').
A chisel having a striking surface, a shank, a spreading element and a tip extending one after the other in striking direction along an axis, in which case the spreading element involves a number of ribs (13, 45) distributed about the axis and extending along the axis characterized in that the ribs (13, 45) are in each case wave-shaped with a deflection which is tangential to the axis.
Device for determining contact between a tool and a workpiece in a machine tool, wherein the tool and the workpiece are able to be moved relative to one another, and the tool or the workpiece is connected to a shaft in a rotationally fixed manner, comprising a measurement arrangement (60, 160) having a measurement graduation (61, 161) arranged on the shaft in a rotationally fixed manner, and at least one position encoder (64, 65, 66, 67, 68, 69) arranged in a stationary manner with respect to the shaft, and a computer (40, 140, 240, 340, 440, 540), wherein • the at least one position encoder (64, 65, 66, 67, 68, 69) is designed so as to be suitable for scanning the measurement graduation (61, 161) and for generating therefrom position values (P1, P2, P3, P4, P5, P6) which indicate a position of the shaft, • the position values (P1, P2, P3, P4, P5, P6) are supplied to the computer (40, 140, 240, 340, 440, 540), which comprises means which determine the contact between the tool and the workpiece by evaluating a progression of the position values (P1, P2, P3, P4, P5, P6) and signal the result of the evaluation by way of the status of a displacement signal. • the at least one position encoder (64, 65, 66, 67, 68, 69) is designed so as to be suitable for scanning the measurement graduation (61, 161) and for generating therefrom position values (P1, P2, P3, P4, P5, P6) which indicate a position of the shaft, • the position values (P1, P2, P3, P4, P5, P6) are supplied to the computer (40, 140, 240, 340, 440, 540), which comprises means which determine the contact between the tool and the workpiece by evaluating a progression of the position values (P1, P2, P3, P4, P5, P6) and signal the result of the evaluation by way of the status of a displacement signal.
A thermoplastic resin composition comprising: an impact-resistant styrene resin composition which contains polystyrene as a main component and a dispersed rubber phase and in which a volume fraction of the dispersed rubber phase is less than 30 %; an elastomer (21, 22); and a filler, wherein the elastomer contains, as a main component, a styrene-butadiene copolymer serving as a linear copolymer constructed by a triblock consisting of a butadiene block and styrene blocks coupled with both ends of the butadiene block, characterized in that in a cross section of the thermoplastic resin composition, assuming that a total area of the filler is equal to 1, among dispersed phases of the elastomer, a total area of the dispersed phases of the elastomer which are in contact with the filler lies within a range between 0.2 or more and 0.4 or less, and/or in that in a cross section of the thermoplastic resin composition, assuming that a total area of all of the dispersed phases of the elastomer is equal to 1, among dispersed phases of the elastomer, a total area of the dispersed phases of the elastomer which are in contact with the filler lies within a range between 0.18 or more and 1 or less. an impact-resistant styrene resin composition which contains polystyrene as a main component and a dispersed rubber phase and in which a volume fraction of the dispersed rubber phase is less than 30 %; an elastomer (21, 22); and a filler, wherein the elastomer contains, as a main component, a styrene-butadiene copolymer serving as a linear copolymer constructed by a triblock consisting of a butadiene block and styrene blocks coupled with both ends of the butadiene block, characterized in that in a cross section of the thermoplastic resin composition, assuming that a total area of the filler is equal to 1, among dispersed phases of the elastomer, a total area of the dispersed phases of the elastomer which are in contact with the filler lies within a range between 0.2 or more and 0.4 or less, and/or in that in a cross section of the thermoplastic resin composition, assuming that a total area of all of the dispersed phases of the elastomer is equal to 1, among dispersed phases of the elastomer, a total area of the dispersed phases of the elastomer which are in contact with the filler lies within a range between 0.18 or more and 1 or less.
A method of scanning a surface of an object using a particle beam, wherein the method comprises: determining a surface portion of the surface of the object, wherein the surface portion is to be scanned; determining initial positions of a set of raster points within the surface portion based on a shape of the surface portion such that the raster points of the set are initially not arranged in a regular two-dimensional array; changing the positions of a subset of the set of raster points such that, in the interior of the surface portion, local deviations of a particle dose from a predetermined target dose occurring when the surface portion is scanned by directing the particle beam to the changed positions of the raster points of the set are smaller than local deviations of a particle dose from the predetermined target dose occurring when the surface portion were scanned by directing the particle beam to the initial positions of the raster points of the set, wherein the changing of the positions of the raster points of the subset is performed such that at least 80% of the raster points located on an edge of the surface portion are not contained in the subset; and then scanning the surface portion by directing the particle beam to the positions of the raster points of the set. determining a surface portion of the surface of the object, wherein the surface portion is to be scanned; determining initial positions of a set of raster points within the surface portion based on a shape of the surface portion such that the raster points of the set are initially not arranged in a regular two-dimensional array; changing the positions of a subset of the set of raster points such that, in the interior of the surface portion, local deviations of a particle dose from a predetermined target dose occurring when the surface portion is scanned by directing the particle beam to the changed positions of the raster points of the set are smaller than local deviations of a particle dose from the predetermined target dose occurring when the surface portion were scanned by directing the particle beam to the initial positions of the raster points of the set, wherein the changing of the positions of the raster points of the subset is performed such that at least 80% of the raster points located on an edge of the surface portion are not contained in the subset; and then scanning the surface portion by directing the particle beam to the positions of the raster points of the set.
A system for managing data, comprising: a plurality of radio frequency identification (RFID) tags (106, 108) attached to a plurality of machines, wherein each of the plurality of RFID tags stores a tag ID; a mobile data collector which is configured to take a measurement of one or more operating conditions of the plurality of machines and to read the tag ID from a proximal one of the plurality of RFID tags; and a computing device (110, 116) comprising a processor and a memory storing a database, the database associating the tag ID of each of the plurality of RFID tags with the one of the plurality of machines to which it is attached, wherein the computing device is configured to receive the measurement and the tag ID from the mobile data collector and analyze the one or more operating conditions, characterized in that the mobile data collector is equipped with one or more sensors; and the mobile data collector is further configured to automatically determine when the mobile data collector is proximal to an RFID tag and automatically commence taking one or more measurements of operating conditions. a plurality of radio frequency identification (RFID) tags (106, 108) attached to a plurality of machines, wherein each of the plurality of RFID tags stores a tag ID; a mobile data collector which is configured to take a measurement of one or more operating conditions of the plurality of machines and to read the tag ID from a proximal one of the plurality of RFID tags; and a computing device (110, 116) comprising a processor and a memory storing a database, the database associating the tag ID of each of the plurality of RFID tags with the one of the plurality of machines to which it is attached, wherein the computing device is configured to receive the measurement and the tag ID from the mobile data collector and analyze the one or more operating conditions, characterized in that the mobile data collector is equipped with one or more sensors; and the mobile data collector is further configured to automatically determine when the mobile data collector is proximal to an RFID tag and automatically commence taking one or more measurements of operating conditions.