mhurhangee/patent-ind-claim-en huggingface dataset:
A speaker assembly comprising: - a base element having a surface (2.1), which is at least partially electrically conductive; - a speaker cooperating with the surface (2.1) of the base element for its connection; - a cover element at least partially covering the base element and comprising a receiving section (4.1) in which the speaker is at least partially received; - a rubber-elastic mounting element interposed between the speaker and the cover element for retaining the speaker in the receiving section (4.1); and - at least one connector element electrically connecting the speaker with the base element , which connector element is preloaded between the speaker and the base element in such a way that the preload of the connector element presses the connector element towards the speaker and the base element, respectively, characterized in that said mounting element comprises at least one guide section (5.7) for guiding said at least one connector element , wherein said guide section (5.7) extends from a proximity of the speaker towards the base element ; and the preload of the connector element maintains the electrical connection between the speaker and the base element. - a base element having a surface (2.1), which is at least partially electrically conductive; - a speaker cooperating with the surface (2.1) of the base element for its connection; - a cover element at least partially covering the base element and comprising a receiving section (4.1) in which the speaker is at least partially received; - a rubber-elastic mounting element interposed between the speaker and the cover element for retaining the speaker in the receiving section (4.1); and - at least one connector element electrically connecting the speaker with the base element , which connector element is preloaded between the speaker and the base element in such a way that the preload of the connector element presses the connector element towards the speaker and the base element, respectively, said mounting element comprises at least one guide section (5.7) for guiding said at least one connector element , wherein said guide section (5.7) extends from a proximity of the speaker towards the base element ; and the preload of the connector element maintains the electrical connection between the speaker and the base element.
A computer-implemented method, comprising: determining, when a plurality of graphical processing units (GPUs) have been assigned a job, an interconnect topology for transmitting data between the plurality of GPUs , the interconnect topology comprising an inter-GPU point-to-point topology and a shared interconnect topology ; determining a minimum number of directed spanning trees corresponding to the interconnect topology, the directed spanning trees comprising data defining communication links between the GPUs and an amount of the data to be transmitted on the communication links; and generating program code based on the directed spanning trees and on weights corresponding to how much data should be sent over each of the spanning trees which, when executed, will cause the data to be transmitted between the GPUs based on the directed spanning trees. determining, when a plurality of graphical processing units (GPUs) have been assigned a job, an interconnect topology for transmitting data between the plurality of GPUs , the interconnect topology comprising an inter-GPU point-to-point topology and a shared interconnect topology ; determining a minimum number of directed spanning trees corresponding to the interconnect topology, the directed spanning trees comprising data defining communication links between the GPUs and an amount of the data to be transmitted on the communication links; and generating program code based on the directed spanning trees and on weights corresponding to how much data should be sent over each of the spanning trees which, when executed, will cause the data to be transmitted between the GPUs based on the directed spanning trees.
A method for displaying a surround view on a single display screen, the method comprising: receiving a plurality of image frames for a particular time from a corresponding plurality of cameras; selecting a first warp map corresponding to a predetermined first virtual viewpoint, wherein the warp map defines a source pixel location in the plurality of image frames for each output pixel location in the display screen, in which the first warp map was predetermined and stored for later use; synthesizing an output image for the display screen by selecting pixel data for each pixel of the output image from the plurality of image frames in accordance with the first warp map; and displaying the output image on the display screen; wherein the plurality of cameras are mounted on a vehicle, and characterized in that the first warp map was produced using a plurality of test cameras in a test bed and wherein the first warp map was combined with calibration parameters to account for differences in location between the plurality of cameras and corresponding ones of the plurality of test cameras during an offline setup process. receiving a plurality of image frames for a particular time from a corresponding plurality of cameras; selecting a first warp map corresponding to a predetermined first virtual viewpoint, wherein the warp map defines a source pixel location in the plurality of image frames for each output pixel location in the display screen, in which the first warp map was predetermined and stored for later use; synthesizing an output image for the display screen by selecting pixel data for each pixel of the output image from the plurality of image frames in accordance with the first warp map; and displaying the output image on the display screen; wherein the plurality of cameras are mounted on a vehicle, and characterized in that the first warp map was produced using a plurality of test cameras in a test bed and wherein the first warp map was combined with calibration parameters to account for differences in location between the plurality of cameras and corresponding ones of the plurality of test cameras during an offline setup process.
A hot melt adhesive comprising: (a) 5 to 40 wt% of a polypropylene-polyethylene (co) polymer having (i) a propylene content of 70 to 95 wt% of the (co)polymer, (ii) a polydispersity (Mw/Mn) index of less than 3.0, (iii) a melt flow rate of 20 to 300 g/10 min measured at 230°C/2.16 kg in accordance with ASTM D1238, (iv) a melting point of less than 90°C, measured in accordance with ASTM 3418, and (v) a heat of fusion value of less than 35 J/g measured at 10°C/min heating and cooling rate in accordance with ASTM D3418-12; (b) 30 to 70 wt% of a tackifier; and (c) optionally up to 30 wt% of a wax or a plasticizer; wherein the adhesive has (i) a tan(δ) value of greater than 30 at 140°C, 10 rad/s and (ii) a melt viscosity of 2,000 to 11,000 mPa·s (cps) at 150°C, measured in accordance with ASTM 3236-88. (a) 5 to 40 wt% of a polypropylene-polyethylene (co) polymer having (i) a propylene content of 70 to 95 wt% of the (co)polymer, (ii) a polydispersity (Mw/Mn) index of less than 3.0, (iii) a melt flow rate of 20 to 300 g/10 min measured at 230°C/2.16 kg in accordance with ASTM D1238, (iv) a melting point of less than 90°C, measured in accordance with ASTM 3418, and (v) a heat of fusion value of less than 35 J/g measured at 10°C/min heating and cooling rate in accordance with ASTM D3418-12; (b) 30 to 70 wt% of a tackifier; and (c) optionally up to 30 wt% of a wax or a plasticizer; wherein the adhesive has (i) a tan(δ) value of greater than 30 at 140°C, 10 rad/s and (ii) a melt viscosity of 2,000 to 11,000 mPa·s (cps) at 150°C, measured in accordance with ASTM 3236-88.
A duct comprising: first and second bellows sections ; first and second torsional rings attached to, respectively, the first and second bellows sections ; and characterised by first and second dynamic seals sandwiched between the first and second torsional rings ; and by a spacer ring disposed between the first and second dynamic seals , the first and second dynamic seals include, respectively, first and second coils . first and second bellows sections ; first and second torsional rings attached to, respectively, the first and second bellows sections ; and characterised by first and second dynamic seals sandwiched between the first and second torsional rings ; and by a spacer ring disposed between the first and second dynamic seals , the first and second dynamic seals include, respectively, first and second coils .
A rotor comprising: a rotor core having magnet insertion holes in a number corresponding to a pole number in a circumferential direction about an axis (Ax), and a center hole at a center portion of the rotor core in a radial direction about the axis (Ax); and a shaft inserted in the center hole by shrink fitting, the rotor core having a plurality of first slits and a plurality of ribs alternately arranged in the circumferential direction along a periphery of the center hole , and a plurality of second slits on an outer side with respect to the plurality of first slits in the radial direction, wherein the plurality of first slits are equal in number to half or an integer multiple of the pole number, and the plurality of second slits are equal in number to half or an integer multiple of the pole number; wherein each of the plurality of second slits is formed to cover a corresponding rib of the plurality of ribs from an outer side in the radial direction; wherein each of the plurality of first slits has a length A1 in the circumferential direction and a width A2 in the radial direction; wherein each of the plurality of second slits has a length B1 in the circumferential direction and a width B2 in the radial direction; wherein A1 > A2, B1 > B2, and A1 > B1 are satisfied; characterized in that each of the plurality of ribs has a width C in the circumferential direction; wherein each of the plurality of first slits is at a distance D in the radial direction from a corresponding second slit of the plurality of second slits ; and wherein the width C is less than the distance D. a rotor core having magnet insertion holes in a number corresponding to a pole number in a circumferential direction about an axis (Ax), and a center hole at a center portion of the rotor core in a radial direction about the axis (Ax); and a shaft inserted in the center hole by shrink fitting, the rotor core having a plurality of first slits and a plurality of ribs alternately arranged in the circumferential direction along a periphery of the center hole , and a plurality of second slits on an outer side with respect to the plurality of first slits in the radial direction, wherein the plurality of first slits are equal in number to half or an integer multiple of the pole number, and the plurality of second slits are equal in number to half or an integer multiple of the pole number; wherein each of the plurality of second slits is formed to cover a corresponding rib of the plurality of ribs from an outer side in the radial direction; wherein each of the plurality of first slits has a length A1 in the circumferential direction and a width A2 in the radial direction; wherein each of the plurality of second slits has a length B1 in the circumferential direction and a width B2 in the radial direction; wherein A1 > A2, B1 > B2, and A1 > B1 are satisfied; characterized in that each of the plurality of ribs has a width C in the circumferential direction; wherein each of the plurality of first slits is at a distance D in the radial direction from a corresponding second slit of the plurality of second slits ; and wherein the width C is less than the distance D.
An apparatus, comprising: a source for providing an x-ray or gamma-ray output beam (30; 74'); at least one x-ray and/or gamma-ray optic to produce, from said output beam, a converging beam directed toward a focal point , the apparatus being arranged to have an object to be observed (40,42; 60, 62) positioned within the path of said output beam or said converging beam to result in an altered beam; an aperture having an opening located at the focal position of said altered beam, wherein at least a portion of said altered beam will pass through said opening to produce a diverging beam; and a detector positioned for detecting an inverted shadowgraph of said object in said diverging beam and recording said inverted shadowgraph of said object. a source for providing an x-ray or gamma-ray output beam (30; 74'); at least one x-ray and/or gamma-ray optic to produce, from said output beam, a converging beam directed toward a focal point , the apparatus being arranged to have an object to be observed (40,42; 60, 62) positioned within the path of said output beam or said converging beam to result in an altered beam; an aperture having an opening located at the focal position of said altered beam, wherein at least a portion of said altered beam will pass through said opening to produce a diverging beam; and a detector positioned for detecting an inverted shadowgraph of said object in said diverging beam and recording said inverted shadowgraph of said object.
A delivery device for conveying an implant, comprising: a sheath core tube , a push rod , a sheath , a holder , a guide rod , a sliding handle , and a position locking device ; wherein the sheath core tube , the push rod , the sheath and the guide rod are coaxially sleeved from inside to outside, and an end head is provided at the distal end of the sheath core tube , wherein one end of the guide rod is connected to the holder , and the other end of the guide rod penetrates through the sliding handle and the sliding handle is integral with the proximal end of the sheath ; wherein an outer surface of the guide rod is provided with a plurality of first engagement structures axially spaced apart from each other along the guide rod ; characterized in that the position locking device is provided in the sliding handle , and the position locking device comprises a tooth block and an elastic component , wherein the tooth block is sleeved on the guide rod , and the tooth block is provided with a second engagement structure ; the elastic component cooperates with the tooth block to allow the first engagement structures and the second engagement structure to engage with each other when the elastic component is one of not compressed or partially compressed, allowing the implant to be in a release-locked state; and the implant is in a releasable state when the elastic component is compressed until the first engagement structures and the second engagement structure are separated. a sheath core tube , a push rod , a sheath , a holder , a guide rod , a sliding handle , and a position locking device ; wherein the sheath core tube , the push rod , the sheath and the guide rod are coaxially sleeved from inside to outside, and an end head is provided at the distal end of the sheath core tube , wherein one end of the guide rod is connected to the holder , and the other end of the guide rod penetrates through the sliding handle and the sliding handle is integral with the proximal end of the sheath ; wherein an outer surface of the guide rod is provided with a plurality of first engagement structures axially spaced apart from each other along the guide rod ; characterized in that the position locking device is provided in the sliding handle , and the position locking device comprises a tooth block and an elastic component , wherein the tooth block is sleeved on the guide rod , and the tooth block is provided with a second engagement structure ; the elastic component cooperates with the tooth block to allow the first engagement structures and the second engagement structure to engage with each other when the elastic component is one of not compressed or partially compressed, allowing the implant to be in a release-locked state; and the implant is in a releasable state when the elastic component is compressed until the first engagement structures and the second engagement structure are separated.
A sole structure for an article of footwear comprising: a sole plate including a midfoot region , a forefoot region , and a heel region ; wherein the sole plate has a foot-facing surface with ridges extending longitudinally such that the foot-facing surface has a undulating profile at a transverse cross-section of the sole plate through the ridges ; wherein the sole plate has a ground-facing surface with grooves extending longitudinally; wherein at least some of the ridges of the foot-facing surface extend non-parallel with one another, and at least some of the grooves of the ground-facing surface extend non-parallel with one another in correspondence with the ridges ; wherein the ridges and the grooves are configured such that a thickness of the sole plate from the foot-facing surface to the ground-facing surface varies at the transverse cross-section, or varies along a length of at least one of the ridges , or varies at both the transverse cross-section and along the length of the at least one of the ridges ; and at least some of the ridges vary in amplitude in a longitudinal direction of the sole plate . a sole plate including a midfoot region , a forefoot region , and a heel region ; wherein the sole plate has a foot-facing surface with ridges extending longitudinally such that the foot-facing surface has a undulating profile at a transverse cross-section of the sole plate through the ridges ; wherein the sole plate has a ground-facing surface with grooves extending longitudinally; wherein at least some of the ridges of the foot-facing surface extend non-parallel with one another, and at least some of the grooves of the ground-facing surface extend non-parallel with one another in correspondence with the ridges ; wherein the ridges and the grooves are configured such that a thickness of the sole plate from the foot-facing surface to the ground-facing surface varies at the transverse cross-section, or varies along a length of at least one of the ridges , or varies at both the transverse cross-section and along the length of the at least one of the ridges ; and at least some of the ridges vary in amplitude in a longitudinal direction of the sole plate .
A method of detecting fluid in a terminal block of a field device , wherein the field device receives power and communicates with a control room by way of a two-wire pair connected to first and second terminals , respectively, which form a current loop, the method comprising: applying an initial AC test signal at a selected frequency to the first and second terminals located in the terminal block of the field device , the initial AC test signal is provided when no fluid is present within the terminal block ; measuring an initial AC voltage magnitude in response to the initial AC test signal; applying a subsequent AC test signal at the selected frequency to the first and second terminals ; measuring a subsequent AC voltage magnitude generated in response to the subsequent AC test signal; and detecting a change in impedance that indicates the presence of fluid in the terminal block between the first and second terminals by comparing the initial AC voltage magnitude with the subsequent AC voltage magnitude. applying an initial AC test signal at a selected frequency to the first and second terminals located in the terminal block of the field device , the initial AC test signal is provided when no fluid is present within the terminal block ; measuring an initial AC voltage magnitude in response to the initial AC test signal; applying a subsequent AC test signal at the selected frequency to the first and second terminals ; measuring a subsequent AC voltage magnitude generated in response to the subsequent AC test signal; and detecting a change in impedance that indicates the presence of fluid in the terminal block between the first and second terminals by comparing the initial AC voltage magnitude with the subsequent AC voltage magnitude.
A method of repairing a sandwich component having a honeycomb core with an associated core height , which is arranged between a first cover plate and a second cover plate , said sandwich component comprising a damaged area including a cover plate crack of the first cover plate and a deterioration of said honeycomb core adjacent to said cover plate crack , said method comprising at least the steps of: - Creating a repair opening having a maximum repair opening diameter in said first cover plate , - Creating a repair cavity in said honeycomb core , said repair cavity having a first maximum diameter that is at least equal to a maximum deterioration diameter associated with said deterioration of said honeycomb core and further having a depth that is at least substantially equal to said associated core height of said honeycomb core , - Introducing a helically rolled-up repair element in compressed form into said repair cavity , said helically rolled-up repair element in said compressed form having an associated element height that is at most equal to said associated core height of said honeycomb core and further having a second maximum diameter that is maximally equal to said maximum repair opening diameter , and - Allowing said helically rolled-up repair element in said compressed form to expand in said repair cavity from said second maximum diameter into an expanded form with a third maximum diameter which is greater than said second maximum diameter . - Creating a repair opening having a maximum repair opening diameter in said first cover plate , - Creating a repair cavity in said honeycomb core , said repair cavity having a first maximum diameter that is at least equal to a maximum deterioration diameter associated with said deterioration of said honeycomb core and further having a depth that is at least substantially equal to said associated core height of said honeycomb core , - Introducing a helically rolled-up repair element in compressed form into said repair cavity , said helically rolled-up repair element in said compressed form having an associated element height that is at most equal to said associated core height of said honeycomb core and further having a second maximum diameter that is maximally equal to said maximum repair opening diameter , and - Allowing said helically rolled-up repair element in said compressed form to expand in said repair cavity from said second maximum diameter into an expanded form with a third maximum diameter which is greater than said second maximum diameter .