mhurhangee/ep-ind-claims huggingface dataset:
A combined lighting and speaker device having a central longitudinal axis defining a forward and a rearward direction and a radially outward and a radially inward direction, the device comprising: a tweeter; a tweeter horn positioned radially outwardly of the tweeter; a speaker positioned rearward of the tweeter horn; and a light emitting diode, LED, assembly positioned radially outwardly of the tweeter, the LED assembly comprising one or more light emitting diodes, LEDs, and a lens having a forward surface, wherein the tweeter horn has an inner edge in communication with an outer edge of the tweeter, so that the tweeter horn forms a guide to direct sound produced by the tweeter away from the speaker when in use, wherein at least part of the tweeter horn is provided by the forward surface of the lens. a tweeter; a tweeter horn positioned radially outwardly of the tweeter; a speaker positioned rearward of the tweeter horn; and a light emitting diode, LED, assembly positioned radially outwardly of the tweeter, the LED assembly comprising one or more light emitting diodes, LEDs, and a lens having a forward surface, wherein the tweeter horn has an inner edge in communication with an outer edge of the tweeter, so that the tweeter horn forms a guide to direct sound produced by the tweeter away from the speaker when in use, wherein at least part of the tweeter horn is provided by the forward surface of the lens.
Solid oxide cell stack system comprising a plurality of stacked cell units and mounting interfaces, the mounting interfaces comprising at least one gasket, wherein said gasket comprises a sandwich structure of at least three layers, a first and a third flexible layer which is flexible enough to compensate for vibrations, surface defects of the mounting interfaces and thermally originated movements and a second electrically insulating layer positioned in between the first and the third layer, wherein the layers are made of mica, the first and the third layers are more flexible than the second layer.
An automatic injection device, comprising: a housing enclosing a cavity for accommodating a container, the housing having a proximal portion adapted to be gripped by a hand of a user and a distal portion adapted to perform an injection on the user, the proximal portion having an irregular tubular shape in which a front face and an opposite back face are planar, and first and second side faces are convex; a first overmolded gripping surface extending longitudinally along a portion of the housing on the first convex side face of the housing; a second overmolded gripping surface extending longitudinally along a portion of the housing on the second convex side face of the housing opposite to the first convex side face; and characterized in that a firing button is located on the front or the back face of the proximal portion. a housing enclosing a cavity for accommodating a container, the housing having a proximal portion adapted to be gripped by a hand of a user and a distal portion adapted to perform an injection on the user, the proximal portion having an irregular tubular shape in which a front face and an opposite back face are planar, and first and second side faces are convex; a first overmolded gripping surface extending longitudinally along a portion of the housing on the first convex side face of the housing; a second overmolded gripping surface extending longitudinally along a portion of the housing on the second convex side face of the housing opposite to the first convex side face; and characterized in that a firing button is located on the front or the back face of the proximal portion.
An integrated circuit, wherein the integrated circuit is configured to control steps of a process of a user equipment for being scheduled with uplink radio resources, wherein at least one unlicensed cell is configured for communication between the user equipment and a radio base station that is responsible for scheduling uplink radio resources on the unlicensed cell, wherein the steps of the process comprise: receiving from the radio base station a first-stage uplink resource scheduling message indicating uplink radio resources usable by the user equipment to perform an uplink transmission via the unlicensed cell, receiving from the radio base station a second-stage uplink resource scheduling message, which is related to the first-stage uplink resource scheduling message, determining whether the first-stage uplink resource scheduling message is valid or not determining, when receiving the second-stage uplink resource scheduling message, that the uplink transmission is scheduled in case the process has determined that the first-stage uplink resource scheduling message is valid, wherein the determination if the first-stage uplink resource scheduling message is valid is based on a determination as to whether the uplink transmission has been triggered by another second-stage uplink resource scheduling message within a predetermined time period prior to reception of the second-stage uplink resource scheduling message, and in case the process has determined that the uplink transmission is scheduled, performing the uplink transmission via the unlicensed cell. receiving from the radio base station a first-stage uplink resource scheduling message indicating uplink radio resources usable by the user equipment to perform an uplink transmission via the unlicensed cell, receiving from the radio base station a second-stage uplink resource scheduling message, which is related to the first-stage uplink resource scheduling message, determining whether the first-stage uplink resource scheduling message is valid or not determining, when receiving the second-stage uplink resource scheduling message, that the uplink transmission is scheduled in case the process has determined that the first-stage uplink resource scheduling message is valid, wherein the determination if the first-stage uplink resource scheduling message is valid is based on a determination as to whether the uplink transmission has been triggered by another second-stage uplink resource scheduling message within a predetermined time period prior to reception of the second-stage uplink resource scheduling message, and in case the process has determined that the uplink transmission is scheduled, performing the uplink transmission via the unlicensed cell.
A solvent-borne system for forming an n-acyl urea coating on a substrate, said solvent-borne system comprising: A. a polycarbodiimide-polyurethane hybrid having the structure: wherein each n is independently a number from 1 to 20; wherein each Y is independently an alkoxy or polyalkoxy group having (w) oxygen atoms, wherein each w is independently at least 1; wherein each z is independently a number from 0 to (w-1); and wherein x, Y, and a total of said C n H 2n+1 groups are present in a ratio of from (4 to 5):(0.5 to 1.5):(2.5 to 4.5), respectively, B. an acid functional polymer; and C. an organic solvent, wherein said solvent-borne system comprises less than or equal to 10 weight percent of water based on a total weight of said solvent-borne system, and wherein said solvent-borne system includes less than 100 parts by weight of toluene diisocyanate per one million parts by weight of said solvent-borne system. A. a polycarbodiimide-polyurethane hybrid having the structure: wherein each n is independently a number from 1 to 20; wherein each Y is independently an alkoxy or polyalkoxy group having (w) oxygen atoms, wherein each w is independently at least 1; wherein each z is independently a number from 0 to (w-1); and wherein x, Y, and a total of said C n H 2n+1 groups are present in a ratio of from (4 to 5):(0.5 to 1.5):(2.5 to 4.5), respectively, wherein each n is independently a number from 1 to 20; wherein each Y is independently an alkoxy or polyalkoxy group having (w) oxygen atoms, wherein each w is independently at least 1; wherein each z is independently a number from 0 to (w-1); and wherein x, Y, and a total of said C n H 2n+1 groups are present in a ratio of from (4 to 5):(0.5 to 1.5):(2.5 to 4.5), respectively, B. an acid functional polymer; and C. an organic solvent,
A method for determining the distance and radial speed of an object relative to a measuring point, wherein the method comprises the following steps: a) emitting first transmission signals, which are radar radiation in the form of first frequency ramps, b) emitting second transmission signals, which are radar radiation in the form of second frequency ramps, wherein the second frequency ramps are different to the first frequency ramps, c) receiving received signals, which are first and second transmission signals reflected at the object, d) mixing the received signals with the first or second transmission signals to create mixed signals, e) creating a range-Doppler matrix using the mixed signals, f) detecting two Doppler frequencies, which originate from the radial speed of the object, and g) evaluating the Doppler frequencies and/or phase information of the mixed signals, such that ambiguities are eliminated when determining the radial speed characterized by that fact that the first transmission signals and the second transmission signals are sent out at the same time. a) emitting first transmission signals, which are radar radiation in the form of first frequency ramps, b) emitting second transmission signals, which are radar radiation in the form of second frequency ramps, wherein the second frequency ramps are different to the first frequency ramps, c) receiving received signals, which are first and second transmission signals reflected at the object, d) mixing the received signals with the first or second transmission signals to create mixed signals, e) creating a range-Doppler matrix using the mixed signals, f) detecting two Doppler frequencies, which originate from the radial speed of the object, and g) evaluating the Doppler frequencies and/or phase information of the mixed signals, such that ambiguities are eliminated when determining the radial speed
A system, comprising: a plurality of printing zones (101-1,101-2,101-N); the system characterized by comprising: a cooperative threading coordination system to coordinate a print job through the plurality of printing zones, the cooperative threading coordination system including a plurality of fibers (103-1, 103-2, 103-M), each fiber among the plurality of fibers assigned to a different printing zone among the plurality of printing zones; wherein each fiber is to move from a ready state to an active state in response to a change in an event flag; and wherein the cooperative threading coordination system is to initiate motors in a particular printing zone among the plurality of printing zones in response to receipt of a wake signal from a printing zone preceding the particular printing zone, wherein the wake signal comprises setting an event flag to move a fiber assigned to the particular printing zone to an active state. a cooperative threading coordination system to coordinate a print job through the plurality of printing zones, the cooperative threading coordination system including a plurality of fibers (103-1, 103-2, 103-M), each fiber among the plurality of fibers assigned to a different printing zone among the plurality of printing zones; wherein each fiber is to move from a ready state to an active state in response to a change in an event flag; and wherein the cooperative threading coordination system is to initiate motors in a particular printing zone among the plurality of printing zones in response to receipt of a wake signal from a printing zone preceding the particular printing zone, wherein the wake signal comprises setting an event flag to move a fiber assigned to the particular printing zone to an active state.
A multi-layer construction method in which construction of each layer comprises the steps of: providing a cementitious material; delivering said cementitious material to a nozzle; indexing said nozzle along a pre-determined path; and applying said cementitious material to a work surface by extrusion through said nozzle; these steps being repeated for each additional layer of construction required the method further comprising: substantially simultaneously with said application of said cementitious material, applying a support material in a contiguous layer with said cementitious material in areas where cementitious material is not desired, such that said support material, along with said cementitious material, provides the work surface for the next layer of construction and applying a cartilage layer to the upper surface of the support layer in areas where the subsequent layer is to be one of cementitious material, or vice versa. providing a cementitious material; delivering said cementitious material to a nozzle; indexing said nozzle along a pre-determined path; and applying said cementitious material to a work surface by extrusion through said nozzle; these steps being repeated for each additional layer of construction required the method further comprising: substantially simultaneously with said application of said cementitious material, applying a support material in a contiguous layer with said cementitious material in areas where cementitious material is not desired, such that said support material, along with said cementitious material, provides the work surface for the next layer of construction and applying a cartilage layer to the upper surface of the support layer in areas where the subsequent layer is to be one of cementitious material, or vice versa. substantially simultaneously with said application of said cementitious material, applying a support material in a contiguous layer with said cementitious material in areas where cementitious material is not desired, such that said support material, along with said cementitious material, provides the work surface for the next layer of construction and applying a cartilage layer to the upper surface of the support layer in areas where the subsequent layer is to be one of cementitious material, or vice versa.
An optical triangulation apparatus (100, 200) comprising: a light source configured to emit a light beam through a detection zone; an image sensor configured to capture an image of the detection zone; a generator configured to introduce a flowable scattering medium into the detection zone; and a processor configured to: receive a background image of the detection zone that is captured by the image sensor in the absence of the flowable scattering medium; receive a measurement image of the detection zone captured by the image sensor in presence of the flowable scattering medium; remove from the received measurement image a background signal obtained from the background image; and determine a boundary of a scattered signal region in the received measurement image. a light source configured to emit a light beam through a detection zone; an image sensor configured to capture an image of the detection zone; a generator configured to introduce a flowable scattering medium into the detection zone; and a processor configured to: receive a background image of the detection zone that is captured by the image sensor in the absence of the flowable scattering medium; receive a measurement image of the detection zone captured by the image sensor in presence of the flowable scattering medium; remove from the received measurement image a background signal obtained from the background image; and determine a boundary of a scattered signal region in the received measurement image. receive a background image of the detection zone that is captured by the image sensor in the absence of the flowable scattering medium; receive a measurement image of the detection zone captured by the image sensor in presence of the flowable scattering medium; remove from the received measurement image a background signal obtained from the background image; and determine a boundary of a scattered signal region in the received measurement image.
In combination: a) an over-the-road vehicle comprising a frame bounding a cargo space and at least one door (16, 16', 16") that is movable between closed and open positions to selectively block and allow access to the cargo space, the at least one door (16, 16', 16") comprising a first door (16, 16") that has oppositely facing inside and outside surfaces (28, 30) and a peripheral edge between the inside and outside surfaces (28, 30), the first door (16, 16") having a first latch assembly thereon that cooperates with a second latch assembly on one of: a) the vehicle frame; and b) a second door to releasably maintain the first door (16, 16") in its closed position; wherein the first latch assembly is secured to the first door (16, 16") using at least one fastener (36, 38, 40); and b) a locking system comprising a first locking assembly (62, 62', 108) on the first door (16, 16") and a second locking assembly (64, 64', 110) on the one of the vehicle frame and second door, the first locking assembly secured to the first door (16, 16") using at least the fastener (36, 38, 40), the secured first and second locking assemblies (62, 62', 108, 64, 64', 110) cooperating to be maintained together either inside or outside of the cargo space to thereby prevent the first door (16, 16") in its closed position from being moved into its open position, characterised in that the at least one fastener (36, 38, 40) is directed through the peripheral edge and secures the first locking assembly and first latch assembly to the first door (16, 16"). a) an over-the-road vehicle comprising a frame bounding a cargo space and at least one door (16, 16', 16") that is movable between closed and open positions to selectively block and allow access to the cargo space, the at least one door (16, 16', 16") comprising a first door (16, 16") that has oppositely facing inside and outside surfaces (28, 30) and a peripheral edge between the inside and outside surfaces (28, 30), the first door (16, 16") having a first latch assembly thereon that cooperates with a second latch assembly on one of: a) the vehicle frame; and b) a second door to releasably maintain the first door (16, 16") in its closed position; wherein the first latch assembly is secured to the first door (16, 16") using at least one fastener (36, 38, 40); and b) a locking system comprising a first locking assembly (62, 62', 108) on the first door (16, 16") and a second locking assembly (64, 64', 110) on the one of the vehicle frame and second door, the first locking assembly secured to the first door (16, 16") using at least the fastener (36, 38, 40), the secured first and second locking assemblies (62, 62', 108, 64, 64', 110) cooperating to be maintained together either inside or outside of the cargo space to thereby prevent the first door (16, 16") in its closed position from being moved into its open position,
A method for assessing the efficacy of a therapeutic agent or therapeutic regimen in the treatment of an individual patient with an enteropathic disorder, the method comprising: quantitating the presence of a CYP3A substrate and/or its metabolite(s) in at least one sample which has been obtained from the patient, wherein said patient is an individual identified as having an enteropathic disorder and said patient has been administered an oral dose of the CYP3A substrate. quantitating the presence of a CYP3A substrate and/or its metabolite(s) in at least one sample which has been obtained from the patient, wherein said patient is an individual identified as having an enteropathic disorder and said patient has been administered an oral dose of the CYP3A substrate.
Cooking surface made of a transparent lithium aluminum silicate glass ceramic plate which has a top surface and a bottom surface, wherein the bottom surface is at least partially provided with a bottom coating, characterized in that the glass ceramic includes high quartz mixed crystals as the main crystal phase, the glass ceramic plate with a thickness of 4 mm has a chromaticity c T * of at most 3 when light of standard illuminant D65 passes through, the glass ceramic plate has TiO 2 as nucleating agent, the cooking surface has a color locus A with the color coordinates L R * a R * b R * in the CIELAB color space, which is measured in remission with light of standard illuminant D65, the bottom coating has a color locus B with the color coordinates L Rc ∗ a Rc ∗ b Rc ∗ in the CIELAB color space, the color loci A and B have a distance ΔE Rc, R ∗ with: ΔE Rc, R ∗ = L Rc ∗ − L R ∗ 2 + a Rc ∗ − a R ∗ 2 + b Rc ∗ − b R ∗ 2 and the following is applicable to the distance ΔE Rc, R ∗: 0.07 ⋅ L R ∗ + 1.8 ≤ ΔE Rc, R ∗ ≤ 0.09 L R ∗ + 3.4 wherein the color coordinate L R ∗ in % denotes the brightness of the cooking surface, which is measured in remission with light of standard illuminant D65, with 50 % ≤ L R ∗ ≤ 100 % the glass ceramic includes high quartz mixed crystals as the main crystal phase, the glass ceramic plate with a thickness of 4 mm has a chromaticity c T * of at most 3 when light of standard illuminant D65 passes through, the glass ceramic plate has TiO 2 as nucleating agent, the cooking surface has a color locus A with the color coordinates L R * a R * b R * in the CIELAB color space, which is measured in remission with light of standard illuminant D65, the bottom coating has a color locus B with the color coordinates L Rc ∗ a Rc ∗ b Rc ∗ in the CIELAB color space, the color loci A and B have a distance ΔE Rc, R ∗ with: ΔE Rc, R ∗ = L Rc ∗ − L R ∗ 2 + a Rc ∗ − a R ∗ 2 + b Rc ∗ − b R ∗ 2 and the following is applicable to the distance ΔE Rc, R ∗: 0.07 ⋅ L R ∗ + 1.8 ≤ ΔE Rc, R ∗ ≤ 0.09 L R ∗ + 3.4 wherein the color coordinate L R ∗ in % denotes the brightness of the cooking surface, which is measured in remission with light of standard illuminant D65, with 50 % ≤ L R ∗ ≤ 100 %
A core engine for a gas turbine engine, comprising: a compressor section (22, 24), a combustion section, and a turbine section (28, 30) defining at least in part an engine airflow path for the core engine; an inner flowpath surface positioned at least partially within the compressor section (22, 24) and defining at least in part the engine airflow path; a core casing at least partially enclosing the compressor section (22, 24) and defining a forward end, the core casing comprising a translating inlet assembly at the forward end, the translating inlet assembly and inner flowpath surface together defining an inlet to the compressor section (22, 24), the translating inlet assembly moveable between a first position defining a first inlet area at the inlet and a second position defining a second inlet area at the inlet, the first inlet area being greater than the second inlet area; wherein the translating inlet assembly defines a front edge, wherein the core engine defines a circumferential direction, wherein the front edge defines a first circumference in the first position, wherein the front edge defines a second circumference in the second position, characterized in that the second circumference is less than the first circumference. a compressor section (22, 24), a combustion section, and a turbine section (28, 30) defining at least in part an engine airflow path for the core engine; an inner flowpath surface positioned at least partially within the compressor section (22, 24) and defining at least in part the engine airflow path; a core casing at least partially enclosing the compressor section (22, 24) and defining a forward end, the core casing comprising a translating inlet assembly at the forward end, the translating inlet assembly and inner flowpath surface together defining an inlet to the compressor section (22, 24), the translating inlet assembly moveable between a first position defining a first inlet area at the inlet and a second position defining a second inlet area at the inlet, the first inlet area being greater than the second inlet area; wherein the translating inlet assembly defines a front edge, wherein the core engine defines a circumferential direction, wherein the front edge defines a first circumference in the first position, wherein the front edge defines a second circumference in the second position, characterized in that the second circumference is less than the first circumference.