mhurhangee/ep-ind-claims huggingface dataset:
A robot comprising: a sensing unit including at least one sensor for detecting a user; a face detector configured to acquire an image including a face of the user detected by the sensing unit; a controller configured to detect an interaction intention of the user from the acquired image; and an output unit configured to output a notification signal, preferably an audible and/or a visual signal, more preferably comprising at least one of a speaker, a display or a light indicator for outputting at least one of sound, a screen or light, to induce interaction of the user, when the interaction intention is detected, wherein the controller is further configured to: detect a plurality of users present in a detection zone (Zone 2) within a predetermined distance from the robot through the sensing unit, control the face detector to acquire a first image including a face of a first user who has first entered an interaction intention detection zone (Zone 1) among the plurality of detected users, and detect an interaction intention of the first user based on the acquired first image. a sensing unit including at least one sensor for detecting a user; a face detector configured to acquire an image including a face of the user detected by the sensing unit; a controller configured to detect an interaction intention of the user from the acquired image; and an output unit configured to output a notification signal, preferably an audible and/or a visual signal, more preferably comprising at least one of a speaker, a display or a light indicator for outputting at least one of sound, a screen or light, to induce interaction of the user, when the interaction intention is detected, wherein the controller is further configured to: detect a plurality of users present in a detection zone (Zone 2) within a predetermined distance from the robot through the sensing unit, control the face detector to acquire a first image including a face of a first user who has first entered an interaction intention detection zone (Zone 1) among the plurality of detected users, and detect an interaction intention of the first user based on the acquired first image. detect a plurality of users present in a detection zone (Zone 2) within a predetermined distance from the robot through the sensing unit, control the face detector to acquire a first image including a face of a first user who has first entered an interaction intention detection zone (Zone 1) among the plurality of detected users, and detect an interaction intention of the first user based on the acquired first image.
Substantially pure polymorphic form K of pitavastatin calcium, wherein said substantially pure polymorphic form is characterized in that is has an X-ray powder diffraction pattern having peaks at 3.8, 11.3, 17.4, 18.1, 24.6 ± 0.2 degrees two-theta, said X-ray powder diffraction pattern being obtained by using CuKα radiation of 1.541874 Å, and that it comprises less than 10% of other crystalline forms of pitavastatin calcium and less than 3% of other impurities and is characterized by an X-ray powder diffraction pattern as shown in Figure 1.
Motor vehicle exterior part comprising: - a wall comprising a face intended to be visible from outside of a vehicle, said face being coated with a first layer, - a second layer covering the first layer, - a heating element arranged between the two layers (12,16), the first layer comprising an area of increased thickness and the heating element being arranged only on the area of increased thickness of the first layer, characterized in that the heating element is a heating filament - a wall comprising a face intended to be visible from outside of a vehicle, said face being coated with a first layer, - a second layer covering the first layer, - a heating element arranged between the two layers (12,16),
A detecting means for detecting a signal that is indicative of the activity of the respiratory muscles of a person to be examined, said detecting means comprising a band means which is passed around a torso region which widens and narrows in response to the respiration of a person to be examined as well as a structure which is included in the band means and is loaded by said band means in accordance with the narrowing and widening of the torso region, wherein said structure is configured such that it causes a change in the volume of a measuring space means, characterized in that the structure is configured as a buckle means, the measuring space means is located within said buckle means, wherein the change in the volume is realized by squeezing elastically deformable walls of the measuring space means which form an elastically deformable chamber means realized by a tube portion that is squeezed by the buckle means in accordance with the tensile loading of the band means, and the buckle means is divided into two segments (2a, 2b), and the two segments (2a, 2b) surround the tube portion for squeezing it depending on the tensile force.
A computer-implemented method of designing a conceptual design level three-dimensional, mixed compression inlet for an aircraft engine with predictable performance, the method comprising: (a) developing a flowfield generator by forming an axisymmetric, mixed compression inlet with desired supersonic diffuser characteristics and terminal shock Mach number as a design condition by projecting a desired aperture shape onto an external shock wave, positioning streamline seeds along the projected aperture segments and obtaining streamlines from the flowfield generator CFD solution based on said streamline seeds, (b) developing a wireframe representation for the supersonic diffusor of the inlet with said streamlines; (c) converting the wireframe representation to inlet surfaces of the supersonic diffuser; (d) integrating a subsonic diffuser with the supersonic diffuser; (e) comparing a resultant geometry to the flowfield generator at the design condition using computational fluid dynamics; and (f) selecting a design wherein the metrics of the supersonic diffuser are similar to those of the flowfield generator. (a) developing a flowfield generator by forming an axisymmetric, mixed compression inlet with desired supersonic diffuser characteristics and terminal shock Mach number as a design condition by projecting a desired aperture shape onto an external shock wave, positioning streamline seeds along the projected aperture segments and obtaining streamlines from the flowfield generator CFD solution based on said streamline seeds, (b) developing a wireframe representation for the supersonic diffusor of the inlet with said streamlines; (c) converting the wireframe representation to inlet surfaces of the supersonic diffuser; (d) integrating a subsonic diffuser with the supersonic diffuser; (e) comparing a resultant geometry to the flowfield generator at the design condition using computational fluid dynamics; and (f) selecting a design wherein the metrics of the supersonic diffuser are similar to those of the flowfield generator.
A scaffolding to be fastened to a bridge or a corresponding deck structure, comprising: - a boom system for supporting the working platforms and the support structures needed for the work, - a fastening body for fastening the boom system to the upper side of the deck structure, and - adjustment means (12, 16, 17, 18) for adjusting the position of the boom system, whereby the boom system comprises a vertical boom characterized in that said vertical boom is fastened to the means for adjusting the position of the boom system with lugs, each of which having one row of holes for removable connection members, wherein there is a first interval between the holes, and the vertical boom having a row of holes for removable connection members, wherein the interval between the holes of the vertical boom is longer than the interval between the holes of the lugs. - a boom system for supporting the working platforms and the support structures needed for the work, - a fastening body for fastening the boom system to the upper side of the deck structure, and - adjustment means (12, 16, 17, 18) for adjusting the position of the boom system,
A compound of Formula I: or a pharmaceutically acceptable salt, solvate, tautomeric form or polymorphic form thereof, wherein: each X is C 1 -C 10 alkoxyl; each Y is independently hydroxyl or fluoro; each Z is - L C O p CR 3, - L OC p CR 3 or - L C O p Cy; wherein each L is independently alkylene, or substituted alkylene; each Cy is independently cycloalkyl or substituted cycloalkyl; and each p is independently 0 or 1; and each R is independently hydrogen, alkyl, substituted alkyl, cycloalkyl, aryl, or heteroaryl. each X is C 1 -C 10 alkoxyl; each Y is independently hydroxyl or fluoro; each Z is - L C O p CR 3, - L OC p CR 3 or - L C O p Cy; wherein each L is independently alkylene, or substituted alkylene; each Cy is independently cycloalkyl or substituted cycloalkyl; and each p is independently 0 or 1; and each L is independently alkylene, or substituted alkylene; each Cy is independently cycloalkyl or substituted cycloalkyl; and each p is independently 0 or 1; and each R is independently hydrogen, alkyl, substituted alkyl, cycloalkyl, aryl, or heteroaryl.
Apparatus (6, 56) for extracting and filtering asbestos from air from within a working enclosure, comprising means to extract air from said working enclosure, filter means (8, 9) through which said air is passed, and at least one airflow sensor means arranged to measure a local airflow velocity at a point in an outflow of said filter means (8, 9), characterised in that the apparatus (6, 56) further comprises means to determine from said local airflow velocity an overall volumetric airflow through the apparatus.
A control apparatus for a hybrid vehicle including an engine, a motor/generator, a first clutch that transmits and disconnect torque between the engine and the motor/generator by engagement and disengagement of the first clutch and an automatic transmission disposed between the motor/generator and a driving wheel, the control apparatus comprising: a controller configured: to maintain engagement of the first clutch to perform a vehicle coasting drive while dragging the engine at a time of coasting deceleration, characterized in that the controller is configured: to control the automatic transmission to perform a downshift process including a first torque phase, during which the controller executes a first torque control of the motor/generator, an inertia phase, during which the controller executes a rotation speed control of the motor/generator, and a second torque control phase, during which the controller performs a second torque control of the motor/generator; to disengage the first clutch during the downshift process in response to switching from the first torque control to the rotation speed control; and to maintain disengagement of the first clutch and shift from the rotation speed control of the motor/generator to the second torque control of the motor/generator after the inertia phase is completed and the second torque phase begins. to control the automatic transmission to perform a downshift process including a first torque phase, during which the controller executes a first torque control of the motor/generator, an inertia phase, during which the controller executes a rotation speed control of the motor/generator, and a second torque control phase, during which the controller performs a second torque control of the motor/generator; to disengage the first clutch during the downshift process in response to switching from the first torque control to the rotation speed control; and to maintain disengagement of the first clutch and shift from the rotation speed control of the motor/generator to the second torque control of the motor/generator after the inertia phase is completed and the second torque phase begins.
A powered air respirator system comprising: a facepiece operable to fit onto or over a user's head; one or more filter operable to filter air to be breathed by the user; and a cross flow blower operable to supply filtered air to the facepiece, wherein the cross flow blower comprises: a housing comprising an inlet and an outlet, wherein the thickness of the housing is less than 50.8 mm (2 inches); rotating impeller blades located within the housing; a motor operable to power the rotating impeller blades; and a plurality of flow forming blades (210, 214) located within the blower, attached to the housing, and operable to direct airflow within the blower. a facepiece operable to fit onto or over a user's head; one or more filter operable to filter air to be breathed by the user; and a cross flow blower operable to supply filtered air to the facepiece, wherein the cross flow blower comprises: a housing comprising an inlet and an outlet, wherein the thickness of the housing is less than 50.8 mm (2 inches); rotating impeller blades located within the housing; a motor operable to power the rotating impeller blades; and a plurality of flow forming blades (210, 214) located within the blower, attached to the housing, and operable to direct airflow within the blower. a housing comprising an inlet and an outlet, wherein the thickness of the housing is less than 50.8 mm (2 inches); rotating impeller blades located within the housing; a motor operable to power the rotating impeller blades; and a plurality of flow forming blades (210, 214) located within the blower, attached to the housing, and operable to direct airflow within the blower.
A method of repacking tasks in a graphics pipeline, the method comprising, in response to a task reaching a repack instruction in a program, the repack instruction specifying a checkpoint in the program: determining if the task is eligible for repacking; and in response to determining that the task is eligible for repacking: de-scheduling the task; determining whether repacking conditions are satisfied (205, 302, 306, 308); in response to determining that the repacking conditions are satisfied, determining whether there is a pair of compatible and non-conflicting tasks at the checkpoint; and in response to identifying a pair of compatible and non-conflicting tasks at the checkpoint, transferring one or more instances between the pair of tasks, each instance corresponding to a fragment, and wherein a pair of tasks are conflicting if: any transfer of instances between the pair of tasks will not result in one of the tasks being emptied; or both tasks comprise an instance relating to an identical pixel address. determining if the task is eligible for repacking; and in response to determining that the task is eligible for repacking: de-scheduling the task; determining whether repacking conditions are satisfied (205, 302, 306, 308); in response to determining that the repacking conditions are satisfied, determining whether there is a pair of compatible and non-conflicting tasks at the checkpoint; and in response to identifying a pair of compatible and non-conflicting tasks at the checkpoint, transferring one or more instances between the pair of tasks, each instance corresponding to a fragment, and wherein a pair of tasks are conflicting if: any transfer of instances between the pair of tasks will not result in one of the tasks being emptied; or both tasks comprise an instance relating to an identical pixel address. de-scheduling the task; determining whether repacking conditions are satisfied (205, 302, 306, 308); in response to determining that the repacking conditions are satisfied, determining whether there is a pair of compatible and non-conflicting tasks at the checkpoint; and in response to identifying a pair of compatible and non-conflicting tasks at the checkpoint, transferring one or more instances between the pair of tasks, each instance corresponding to a fragment, and wherein a pair of tasks are conflicting if: any transfer of instances between the pair of tasks will not result in one of the tasks being emptied; or both tasks comprise an instance relating to an identical pixel address. any transfer of instances between the pair of tasks will not result in one of the tasks being emptied; or both tasks comprise an instance relating to an identical pixel address.
A super-resolution microscopy method for three-dimensional localization of one or more emitting particles, comprising: - forming at least one image of said emitting particle in a detection plane of a detector by means of a microscopy imaging system (121, 123, 124, 125); - correcting, by means of a wavefront-modulating device, at least some of the optical defects present between said emitting particle and said detection plane; and - introducing, via said wavefront-modulating device, a deformation of the wavefront emitted by said emitting particle, of variable amplitude, allowing a bijective relationship to be formed between the shape of the image of said emitting particle in the detection plane and the axial position of said emitting particle relative to an object plane that is optically conjugated with the detection plane by the microscopy imaging system, in a given range of values of said axial position of the particle, - controlling the amplitude of said deformation of the wavefront by a means for controlling the wavefront-modulating device, as a function of said given range of values of said axial position of the particle. - forming at least one image of said emitting particle in a detection plane of a detector by means of a microscopy imaging system (121, 123, 124, 125); - correcting, by means of a wavefront-modulating device, at least some of the optical defects present between said emitting particle and said detection plane; and - introducing, via said wavefront-modulating device, a deformation of the wavefront emitted by said emitting particle, of variable amplitude, allowing a bijective relationship to be formed between the shape of the image of said emitting particle in the detection plane and the axial position of said emitting particle relative to an object plane that is optically conjugated with the detection plane by the microscopy imaging system, in a given range of values of said axial position of the particle, - controlling the amplitude of said deformation of the wavefront by a means for controlling the wavefront-modulating device, as a function of said given range of values of said axial position of the particle.
A production method of monocyclic aromatic hydrocarbons having 6 to 8 carbon number, comprising a step of bringing oil feedstock having a 10 volume% distillation temperature of 140°C or higher and a 90 volume% distillation temperature of 380°C or lower into contact with a catalyst for producing monocyclic aromatic hydrocarbons that includes a mixture containing a first catalyst which contains crystalline aluminosilicate containing one or more of a combination of gallium and phosphorus and a combination of zinc and phosphorus and a second catalyst which contains crystalline aluminosilicate containing phosphorus and not containing gallium and/or zinc.
Gas turbine comprising - at least one rotor assembly; and - at least one compressor casing; wherein - the compressor casing comprises at least one inner compressor casing chamber for arranging the rotor assembly and at least one outer compressor casing chamber for tempering the compressor casing; - the inner compressor casing chamber and the outer compressor casing chamber are separated from each other by a separating casing wall; - the outer compressor casing chamber comprises a at least one boundary casing wall; - the boundary casing wall and the separating casing wall are oppositely spaced from each other such that the compressor outer compressor casing chamber is formed; and - the boundary casing wall comprises at least one tangentially oriented inlet opening for leading in an inlet tempering gas flow with tempering gas into the outer compressor casing chamber for tempering the compressor casing such that a tangential material temperature variation of the compressor casing is reduced in comparison to a non tempered compressor casing, characterised in that a tangential position of the inlet opening and an angle of injected air jet by the inlet opening is selected such that the air jet will hit and thereby cool the separating casing wall at a top vertical position of the outer compressor casing chamber. - at least one rotor assembly; and - at least one compressor casing; - the compressor casing comprises at least one inner compressor casing chamber for arranging the rotor assembly and at least one outer compressor casing chamber for tempering the compressor casing; - the inner compressor casing chamber and the outer compressor casing chamber are separated from each other by a separating casing wall; - the outer compressor casing chamber comprises a at least one boundary casing wall; - the boundary casing wall and the separating casing wall are oppositely spaced from each other such that the compressor outer compressor casing chamber is formed; and - the boundary casing wall comprises at least one tangentially oriented inlet opening for leading in an inlet tempering gas flow with tempering gas into the outer compressor casing chamber for tempering the compressor casing such that a tangential material temperature variation of the compressor casing is reduced in comparison to a non tempered compressor casing, characterised in that a tangential position of the inlet opening and an angle of injected air jet by the inlet opening is selected such that the air jet will hit and thereby cool the separating casing wall at a top vertical position of the outer compressor casing chamber.
Method for setting up and operating a loading ramp arrangement that comprises at least one loading ramp at a loading station, at least one lifting cylinder, a pressure source, and a control valve for said lifting cylinder to lift said loading ramp, and a loading ramp control unit for controlling said control valve, characterized in that for setting up said loading ramp arrangement, a determination is made whether or not cross-load traffic with a load above a load threshold value is possible at said loading station via said loading ramp, wherein said loading ramp control unit, a) is set in such a manner that if cross-load traffic with a load above said load threshold value is possible, said control valve is kept open when switched on for holding and/or moving said loading ramp in a loading state and in a resting state of said loading ramp, b) and is set in such a manner that if no cross-load traffic is possible or is only possible with a load below said load threshold value, it will selectively enter a power-saving mode in which said control valve is normally closed, and a hold and operating mode in which said control valve is normally open, for lifting or holding said loading ramp via said lifting cylinder, wherein during the operation in the case of b), at least one parameter is obtained indicating a resting state or a loading state and wherein the power-saving mode is selected in the resting state and the hold and operating mode is selected in the loading state, depending on said parameter. a) is set in such a manner that if cross-load traffic with a load above said load threshold value is possible, said control valve is kept open when switched on for holding and/or moving said loading ramp in a loading state and in a resting state of said loading ramp, b) and is set in such a manner that if no cross-load traffic is possible or is only possible with a load below said load threshold value, it will selectively enter a power-saving mode in which said control valve is normally closed, and a hold and operating mode in which said control valve is normally open, for lifting or holding said loading ramp via said lifting cylinder,