mhurhangee/patent-ind-claim-en huggingface dataset:
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising: a midsole having an upper surface and a lower surface , the upper surface positioned adjacent to the upper, and the lower surface defining an array of cavities ; an outsole secured to the midsole and including a first surface that forms at least part of a ground-contacting surface of the article of footwear, the outsole defining an array of apertures , each of the apertures being aligned with one of the cavities ; and an array of fluid-filled chambers partially located within the cavities and extending into the apertures of the outsole , the chambers protruding outward from the cavities and each of the chambers including a second surface that is coplanar with the first surface of the outsole and forms at least part of a ground-contacting surface of the article of footwear. a midsole having an upper surface and a lower surface , the upper surface positioned adjacent to the upper, and the lower surface defining an array of cavities ; an outsole secured to the midsole and including a first surface that forms at least part of a ground-contacting surface of the article of footwear, the outsole defining an array of apertures , each of the apertures being aligned with one of the cavities ; and an array of fluid-filled chambers partially located within the cavities and extending into the apertures of the outsole , the chambers protruding outward from the cavities and each of the chambers including a second surface that is coplanar with the first surface of the outsole and forms at least part of a ground-contacting surface of the article of footwear.
Differential-logic circuit able to be chained with another differential-logic circuit having the same configuration, comprising: - a first logic cell composed of back-gate transistors, the first cell having at least one first input for receiving at least one first input signal (A) and having an output for delivering a first output signal (S); and - a second logic cell complementary to the first cell, composed of back-gate transistors, the second cell having as many inputs as the first cell, each input being able to receive an input signal ( A ) complementary to the respective input signal of the first cell, the second cell having an output for delivering a second output signal ( S ) complementary to the first output signal (S) of the first cell; said first output signal (S) of the first cell being applied to the back gate of each transistor of the second cell and said second output signal ( S ) of the second cell being applied to the back gate of each transistor of the first cell; the circuit being characterized in that said first output signal (S) of the first cell is connected to an input of a first logic cell of another differential logic circuit of same configuration as said differential logic circuit; and said second output signal ( S ) of the second cell is connected to an input of a second logic cell of this other circuit in differential logic. - a first logic cell composed of back-gate transistors, the first cell having at least one first input for receiving at least one first input signal (A) and having an output for delivering a first output signal (S); and - a second logic cell complementary to the first cell, composed of back-gate transistors, the second cell having as many inputs as the first cell, each input being able to receive an input signal ( A ) complementary to the respective input signal of the first cell, the second cell having an output for delivering a second output signal ( S ) complementary to the first output signal (S) of the first cell;
Two-stage method for producing a polyurethane hotmelt adhesive, which method comprises A) reacting at least one polyol with at least one diisocyanate, wherein the NCO/OH ratio is above 1.5 to 2.5, to obtain a reaction mixture containing an isocyanate-functional polyurethane prepolymer and unconverted diisocyanate, and B) reacting the reaction mixture obtained in stage A), containing the isocyanate-functional polyurethane prepolymer and unconverted diisocyanate, with at least one polyester polyol, wherein the NCO/OH ratio is above 3, wherein the unconverted diisocyanate content of the reaction mixture obtained in stage A) is from 1.5 to 5 wt%, based on the total weight of the reaction mixture. A) reacting at least one polyol with at least one diisocyanate, wherein the NCO/OH ratio is above 1.5 to 2.5, to obtain a reaction mixture containing an isocyanate-functional polyurethane prepolymer and unconverted diisocyanate, and B) reacting the reaction mixture obtained in stage A), containing the isocyanate-functional polyurethane prepolymer and unconverted diisocyanate, with at least one polyester polyol, wherein the NCO/OH ratio is above 3, wherein the unconverted diisocyanate content of the reaction mixture obtained in stage A) is from 1.5 to 5 wt%, based on the total weight of the reaction mixture.
Rotary-drivable machining tool with a holder extending along a rotary axis and with a cutting head held coaxially on said holder by being screwed to a threaded sleeve arranged in said holder , said threaded sleeve being arranged co-rotatably in the holder and supported axially at least in the direction of the cutting head , characterized in that the cutting head is clamped axially against the holder by means of a threaded spindle screwed into the threaded sleeve , said threaded spindle having a differential thread with threaded sections acting in opposite directions which are screwed into a threaded hole in the threaded sleeve or into a threaded hole in the cutting head , the holder being formed from a basic element and a receiving part held in a co-rotatably and axially fixed manner on said basic element and in which the threaded sleeve is arranged.
A compound for use in the treatment or prevention of a bacterial infection, wherein the compound is selected from the group consisting of: MC4-19: MC4-30: MC4-29: MC4-32: MC4-31: MC4-34: MC4-33: MC4-36: MC4-35: MC4-38: MC4-37: MC4-39: MC4-41: MC4-42: MC4-43: MC4-44: MC4-60: MC4-59: MC4-62: MC4-61: MC4-72: MC4-77: MC4-78: MC4-81: MC4-84: MC4-89: MC4-86: MC4-91: MC4-88: MC4-93: MC4-92: MC4-95: MC4-94: MC4-103: MC4-100: MC4-107: MC4-104: MC4-113: MC4-108: MC4-115: MC4-112: MC4-123: MC4-116: MC4-127: MC4-124: MC4-133: and MC4-138: or a pharmaceutically acceptable salt or a solvate thereof.
Retaining frame for a plug-in connector for receiving contact inserts , with a base frame which has two opposite side walls and two opposite end walls , wherein the two side walls and the two end walls enclose an interior space of the base frame , into which the contact inserts can be inserted along an insertion direction (R), wherein the side walls each have an inner surface pointing in the direction of the interior space , and each have an outer surface directed away from the interior space , and with fastening means which hold the contact inserts , inserted into the interior space of the base frame , on the base frame in a fastened state, characterized in that the fastening means each have a bracket element and an actuating lever , wherein the bracket element can be transferred into a closed position, in which the bracket element is in engagement with a retaining lug of an inserted contact insert , and into an open position, in which the bracket element is out of engagement with the retaining lug of the inserted contact insert , wherein, in the closed position, the bracket element can be braced to the retaining lug by means of the actuating lever . with a base frame which has two opposite side walls and two opposite end walls , wherein the two side walls and the two end walls enclose an interior space of the base frame , into which the contact inserts can be inserted along an insertion direction (R), wherein the side walls each have an inner surface pointing in the direction of the interior space , and each have an outer surface directed away from the interior space , and with fastening means which hold the contact inserts , inserted into the interior space of the base frame , on the base frame in a fastened state, characterized in that the fastening means each have a bracket element and an actuating lever , wherein the bracket element can be transferred into a closed position, in which the bracket element is in engagement with a retaining lug of an inserted contact insert , and into an open position, in which the bracket element is out of engagement with the retaining lug of the inserted contact insert , wherein, in the closed position, the bracket element can be braced to the retaining lug by means of the actuating lever .
A method of acquiring images of a scene by an image acquisition device , the acquisition device comprising a matrix detector having a multitude of pixels, means for scanning the scene at a scan angular velocity (V B ) and means for back scanning the scene at a back scan angular velocity (V CB ), the back scan angular velocity (V CB ) being different from the scan angular velocity (V B ) by an angular velocity difference(Δ), the method comprising the following steps: a. acquisition of successive images (IM) of consecutive portions of the scene partially overlapping on distinct sets of pixels of the detector , each set of pixels being offset from the set of pixels having made it possible to acquire the preceding image by the same number of pixels as a function of the difference in angular velocity (Δ), and b. generation of a final image (IMF) of the scene based on the images (IM) acquired. a. acquisition of successive images (IM) of consecutive portions of the scene partially overlapping on distinct sets of pixels of the detector , each set of pixels being offset from the set of pixels having made it possible to acquire the preceding image by the same number of pixels as a function of the difference in angular velocity (Δ), and b. generation of a final image (IMF) of the scene based on the images (IM) acquired.
An isothermal processing method for making an copper clad aluminum composite comprising: a. providing an aluminum component and a copper component ; b. cleaning the aluminum component and shape finishing the aluminum component ; c. extruding the aluminum component into a core aluminum billet ; d. cleaning the copper component ; e. transforming the copper component into a copper cladding layer ; f. cladding longitudinal and circumferential surface of the core aluminum billet with the copper cladding layer and molding the core aluminum billet and the copper cladding layer together to form a copper cladded aluminum billet ; g. transforming the copper cladded aluminum billet into an isothermal processed copper cladded aluminum composite through isothermal rolling and annealing; wherein the isothermal processed copper cladded aluminum composite is comprised of: an aluminum core and a copper cladding wherein: (a) the copper cladding has copper layer uniformity, i.e., the variance of thickness or depth across the entire copper layer is no more than 8%; (b) boundary between the copper cladding and the aluminum core is metallurgically bonded by the method; and (c) the metallurgical bond located at the boundary is stronger than aluminum intrinsic bonding, i.e., that its shear strength is greater than the intrinsic shear strength of aluminum. a. providing an aluminum component and a copper component ; b. cleaning the aluminum component and shape finishing the aluminum component ; c. extruding the aluminum component into a core aluminum billet ; d. cleaning the copper component ; e. transforming the copper component into a copper cladding layer ; f. cladding longitudinal and circumferential surface of the core aluminum billet with the copper cladding layer and molding the core aluminum billet and the copper cladding layer together to form a copper cladded aluminum billet ; g. transforming the copper cladded aluminum billet into an isothermal processed copper cladded aluminum composite through isothermal rolling and annealing; wherein the isothermal processed copper cladded aluminum composite is comprised of: an aluminum core and a copper cladding wherein: (a) the copper cladding has copper layer uniformity, i.e., the variance of thickness or depth across the entire copper layer is no more than 8%; (b) boundary between the copper cladding and the aluminum core is metallurgically bonded by the method; and (c) the metallurgical bond located at the boundary is stronger than aluminum intrinsic bonding, i.e., that its shear strength is greater than the intrinsic shear strength of aluminum. (a) the copper cladding has copper layer uniformity, i.e., the variance of thickness or depth across the entire copper layer is no more than 8%; (b) boundary between the copper cladding and the aluminum core is metallurgically bonded by the method; and (c) the metallurgical bond located at the boundary is stronger than aluminum intrinsic bonding, i.e., that its shear strength is greater than the intrinsic shear strength of aluminum.
A system for selecting one or more devices in a wireless network for: transmitting, receiving and/or processing a radio frequency signal for presence and/or location detection; and performing network communication; wherein said system comprising at least one processor configured to: - determine a suitability of each of a plurality of devices (11-15) for transmitting, receiving and/or processing a radio frequency signal for presence and/or location detection while leaving sufficient resources for network communication, wherein said plurality of devices (11-15) comprises at least one light device; and wherein network communication comprises transmitting network messages of a lighting control system; - select a subset of devices from said plurality of devices based on said suitability determined for each of said plurality of devices (11-15), and - instruct at least one device of said subset of devices to act as a device for transmitting, receiving and/or processing the radio frequency signal for presence and/or location detection. transmitting, receiving and/or processing a radio frequency signal for presence and/or location detection; and performing network communication; wherein said system comprising at least one processor configured to: - determine a suitability of each of a plurality of devices (11-15) for transmitting, receiving and/or processing a radio frequency signal for presence and/or location detection while leaving sufficient resources for network communication, wherein said plurality of devices (11-15) comprises at least one light device; and wherein network communication comprises transmitting network messages of a lighting control system; - select a subset of devices from said plurality of devices based on said suitability determined for each of said plurality of devices (11-15), and - instruct at least one device of said subset of devices to act as a device for transmitting, receiving and/or processing the radio frequency signal for presence and/or location detection. - determine a suitability of each of a plurality of devices (11-15) for transmitting, receiving and/or processing a radio frequency signal for presence and/or location detection while leaving sufficient resources for network communication, wherein said plurality of devices (11-15) comprises at least one light device; and wherein network communication comprises transmitting network messages of a lighting control system; - select a subset of devices from said plurality of devices based on said suitability determined for each of said plurality of devices (11-15), and - instruct at least one device of said subset of devices to act as a device for transmitting, receiving and/or processing the radio frequency signal for presence and/or location detection.
A method of forming a three-dimensional object with a shape determined by model data defining a model of the object, wherein the model is a grid model in which a regular mesh of grid points is overlaid on a bottom surface and a textured top surface is defined by assigning a height value to each grid point and the method comprises the steps of: a) splitting the model into a high elevation / low resolution base part and a low elevation / high resolution cover part having a top surface identical to the textured top surface and a curved bottom surface which matches a top surface of the high elevation / low resolution base part ; b) forming a base body (30; 30') with a shape as determined by the base part of the model; c) transforming the low elevation / high resolution cover part by a conversion of the curved bottom surface of the low elevation / high resolution cover part into a flat bottom surface while preserving a spatial relation between the curved bottom surface and the textured top surface at each grid point. d) employing a 3D printing technique for printing a sheet-like cover body with a shape as determined by the transformed cover part of the model; and e) matching cover body to the base body (30; 30') by vacuum forming. a) splitting the model into a high elevation / low resolution base part and a low elevation / high resolution cover part having a top surface identical to the textured top surface and a curved bottom surface which matches a top surface of the high elevation / low resolution base part ; b) forming a base body (30; 30') with a shape as determined by the base part of the model; c) transforming the low elevation / high resolution cover part by a conversion of the curved bottom surface of the low elevation / high resolution cover part into a flat bottom surface while preserving a spatial relation between the curved bottom surface and the textured top surface at each grid point. d) employing a 3D printing technique for printing a sheet-like cover body with a shape as determined by the transformed cover part of the model; and e) matching cover body to the base body (30; 30') by vacuum forming.
Apparatus for converting a sheet of elastomeric material into a continuous strip , wherein the sheet has a longitudinal direction (L), a first longitudinal edge , a second longitudinal edge and a sequence of cuts extending in a cutting direction (C) transversely across the sheet with respect to the longitudinal direction (L), wherein the cuts in the sequence alternately extend from one of the longitudinal edges towards and terminate short of the other of the longitudinal edges to form a plurality of interconnected sheet sections , wherein the continuous strip has a plurality of interconnected zig-zag sections , wherein the sheet sections are arranged to be pulled apart in a feeding direction (F) to form the zig-zag sections of the continuous strip , wherein the apparatus comprises a separator device that is arranged for receiving the sheet with the longitudinal direction (L) thereof parallel or substantially parallel to the feeding direction (F), characterized in that the separator device comprises a retaining device for retaining an upstream sheet section with respect to a consecutive downstream sheet section in the feeding direction (F) and a sensor device for detecting the pulling apart of the downstream sheet section from the upstream sheet section .
Tool arrangement comprising a tool receptacle , a data carrier and a device for fastening the data carrier to the tool receptacle , wherein the tool receptacle has a receptacle for the data carrier , wherein the receptacle is formed by an outwardly open recess in the tool receptacle , wherein the recess has a cutout extending laterally into the tool receptacle , characterized in that the device for fastening the data carrier to the tool receptacle comprise a sleeve-like main body which has, at a first end , at least one radially inwardly protruding protrusion and, in the region of a second end opposite to the first end , at least one radially outwardly protruding protrusion .
A vacuum vessel comprising: a shell including a continuous surface layer with a shell locking portion ; a liner including a continuous surface layer with a liner locking portion , where the liner locking portion and the shell locking portion interlock the shell and the liner ; wherein the liner locking portion defines a U-shaped recess and the shell locking portion defines a U-shaped protrusion that projects into the U-shaped recess of the liner locking portion to interlock the liner locking portion and the shell locking portion ; or the shell locking portion defines a U-shaped recess and the liner locking portion defines a U-shaped protrusion that projects into the U-shaped recess of the shell locking portion to interlock the liner locking portion and the shell locking portion ; the vacuum vessel further comprising a panel coupled to the continuous surface layer of the shell to form a cavity defined by the panel and the continuous surface layers of the interlocked shell and liner ; and a vacuum seal including a first sealant layer and a second sealant layer disposed along an interface between the continuous surface layer of the shell and the continuous surface layer of the liner , where at least the first sealant layer is continuously disposed along an interface between the U-shaped shell locking portion and the U-shaped liner locking portion to allow the cavity to maintain a partial vacuum relative an ambient pressure outside the cavity . a shell including a continuous surface layer with a shell locking portion ; a liner including a continuous surface layer with a liner locking portion , where the liner locking portion and the shell locking portion interlock the shell and the liner ; wherein the liner locking portion defines a U-shaped recess and the shell locking portion defines a U-shaped protrusion that projects into the U-shaped recess of the liner locking portion to interlock the liner locking portion and the shell locking portion ; or the shell locking portion defines a U-shaped recess and the liner locking portion defines a U-shaped protrusion that projects into the U-shaped recess of the shell locking portion to interlock the liner locking portion and the shell locking portion ; the vacuum vessel further comprising a panel coupled to the continuous surface layer of the shell to form a cavity defined by the panel and the continuous surface layers of the interlocked shell and liner ; and a vacuum seal including a first sealant layer and a second sealant layer disposed along an interface between the continuous surface layer of the shell and the continuous surface layer of the liner , where at least the first sealant layer is continuously disposed along an interface between the U-shaped shell locking portion and the U-shaped liner locking portion to allow the cavity to maintain a partial vacuum relative an ambient pressure outside the cavity .
Pivoting bolt lock having a housing , in which a pivoting bolt is mounted so as to be able to rotate between an open position and a closed position, and having an adjusting device, which makes it possible to lock the pivoting bolt in the closed position thereof and to cancel said locking action, wherein, in the open position, the pivoting bolt is accommodated completely in the housing and, in the closed position, protrudes with a bolt element out of the housing through an opening , wherein the adjusting device has a spindle drive which drives a spindle , wherein a threaded bushing is arranged on the spindle , characterized in that the threaded bushing is arranged in a locking bow which is rotatably mounted in the housing, such that the locking bow can be pivoted between a locking position and a release position, wherein the locking bow is connected to a lever which, in the closed position of the pivoting bolt and in the locking position of the locking bow , engages in a locking cutout of the pivoting bolt and which, in an open position of the pivoting bolt and a release position of the locking bow , is not in engagement with the locking cutout , wherein the lever is arranged against the locking bow so as to be able to pivot on the latter counter to a restoring force.