mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a cavity; an injection nozzle configured to inject material into the cavity; a plurality of sensors at sensor locations, wherein each of the plurality of sensors is configured to measure parameters at one of the sensor locations during a first molding cycle, and wherein the system calculates the weight and mass of the injected material in the cavity with statistical methods of controls that correlate machine variables with material and melt variables, and wherein the system measures the actual weight and mass of injected material in the mold; a controller configured to control a flow rate of injection of material into the cavity, wherein the controller is configured to receive the measured parameters and compare the measured parameter to predetermined curves during the first molding cycle, and wherein during the first molding cycle, the controller is configured to control the flow rate when the measured parameters deviate from the predetermined curves characterized by the controller is configured to determine if the measured weight and mass match the calculated weight and mass; and to detect a leak if the measured weight and mass do not match the calculated weight and mass. a cavity; an injection nozzle configured to inject material into the cavity; a plurality of sensors at sensor locations, wherein each of the plurality of sensors is configured to measure parameters at one of the sensor locations during a first molding cycle, and wherein the system calculates the weight and mass of the injected material in the cavity with statistical methods of controls that correlate machine variables with material and melt variables, and wherein the system measures the actual weight and mass of injected material in the mold; a controller configured to control a flow rate of injection of material into the cavity, wherein the controller is configured to receive the measured parameters and compare the measured parameter to predetermined curves during the first molding cycle, and wherein during the first molding cycle, the controller is configured to control the flow rate when the measured parameters deviate from the predetermined curves characterized by the controller is configured to determine if the measured weight and mass match the calculated weight and mass; and to detect a leak if the measured weight and mass do not match the calculated weight and mass. wherein the controller is configured to receive the measured parameters and compare the measured parameter to predetermined curves during the first molding cycle, and wherein during the first molding cycle, the controller is configured to control the flow rate when the measured parameters deviate from the predetermined curves characterized by the controller is configured to determine if the measured weight and mass match the calculated weight and mass; and to detect a leak if the measured weight and mass do not match the calculated weight and mass.
Switchable pressure limiting valve with a housing, with an eletcromagnet, with a device for opening and closing a passage for a fluid stream between a P-connection and a T-connection, with a tappet and with a first spring and a second spring, the opening of a valve being determined by the balance of forces at the tappet, and the pressure force of the fluid at the P-connection, the pressure force of the fluid at the T-connection, the force of the first spring and the force of the second spring acting upon the tappet, and the force of the second spring being varied by the position of the armature of the electromagnet, and the valve opening when the pressure force at the P-connection outweighs the balance of the other forces, characterized in that the device is composed of a diaphragm and of a sealing seat, the armature of the electromagnet does not impinge onto the diaphragm directly or indirectly, but instead merely tensions to a greater or lesser extent the spring which in turn presses the diaphragm against the sealing seat by means of the tappet, and the diaphragm is tension-mounted sealingly between the housing, on the one hand, and the magnetic pole or a spacer disk supported thereon, on the other hand, the force-transmitting function of the spacer disk also being capable of being performed by a plurality of components.
Fuel delivery system of an internal combustion engine, having a rotary pump which pumps fuel from a low-pressure region into a high-pressure region, wherein the rotary pump has at least one low-pressure-side inlet section and at least one high-pressure-side outlet section (44, 46), and having a controllable valve device which is arranged between the low-pressure-side inlet section and low-pressure region and which serves for controlling the delivered fuel flow, characterized in that the rotary pump comprises at least two outlet sections (44, 46) which are situated one behind the other as viewed in the direction of rotation and which are separated from one another, and in that at least one front outlet section as viewed in the direction of rotation can be hydraulically activated or deactivated, and in that, between the inlet section and a rear outlet section as viewed in the direction of rotation, there is arranged a second spring-loaded check valve which blocks in the direction of the rear outlet section.
An oscillating nozzle, comprising - a fluidic oscillator with inlet and outlet which forms a narrowing, and a main channel and at least one control passage surrounding the main channel, and - a splitter comprising at least two splitter channels (7a, 7b), wherein the splitter is attached to the outlet of the fluidic oscillator and arranged behind the fluidic oscillator, wherein a sleeve of at least one of the at least two splitter channels (7a, 7b) is partially a flexible foil. - a fluidic oscillator with inlet and outlet which forms a narrowing, and a main channel and at least one control passage surrounding the main channel, and - a splitter comprising at least two splitter channels (7a, 7b), wherein the splitter is attached to the outlet of the fluidic oscillator and arranged behind the fluidic oscillator, wherein a sleeve of at least one of the at least two splitter channels (7a, 7b) is partially a flexible foil.
A wireless network element operable to provision categories of applications on a mobile device, the wireless network element having computer circuitry configured to: communicate Application Specific Congestion Control for Data Communications, ACDC/Application and Service Access Control, ASAC, information to the mobile device, the ACDC/ASAC information including a preconfigured white list of application categories containing categories of applications that are allowed to access the wireless network when ACDC/ASAC is activated in the wireless network; detect that a wireless network channel condition of the wireless network exceeds a capacity threshold; and activate the ACDC/ASAC at a selected prioritization level while the capacity threshold is exceeded, the ACDC/ASAC enabling only categories of applications contained in the preconfigured white list to operate at the mobile device, characterized in that the ACDC/ASAC information indicates whether the preconfigured white list of application categories is capable of being overridden by a home geographical region associated with the mobile device. communicate Application Specific Congestion Control for Data Communications, ACDC/Application and Service Access Control, ASAC, information to the mobile device, the ACDC/ASAC information including a preconfigured white list of application categories containing categories of applications that are allowed to access the wireless network when ACDC/ASAC is activated in the wireless network; detect that a wireless network channel condition of the wireless network exceeds a capacity threshold; and activate the ACDC/ASAC at a selected prioritization level while the capacity threshold is exceeded, the ACDC/ASAC enabling only categories of applications contained in the preconfigured white list to operate at the mobile device, characterized in that the ACDC/ASAC information indicates whether the preconfigured white list of application categories is capable of being overridden by a home geographical region associated with the mobile device.
Longitudinally adjustable steering shaft for a motor vehicle, having an inner shaft part which is received in an outer shaft part so as to be displaceable coaxially and in an axial direction of the steering shaft, wherein the two shaft parts (2, 4) comprise profiles which interlock in cross section for transmitting a torque and a profile sleeve is arranged between the inner shaft part and the outer shaft part, wherein the profile sleeve comprises in a first end region at least one radially protruding stop for abutment against an end face (11, 110) of the inner shaft part or of the outer shaft part in the one axial direction, and in that a radial projection (13, 130) is provided on one of the two shaft parts (2, 4) for the abutment of the profile sleeve against the inner shaft part or the outer shaft part in the opposite axial direction, characterized in that an end region of the inner shaft part or of the outer shaft part is provided with the radial projection for the abutment of the profile sleeve in the opposite axial direction, and in that the profile sleeve comprises in the first end region a slot which is open in the axial direction and into which the radial projection projects.
A method of calibrating an infrared camera comprising a pixel array housed in a housing, the pixel array having an image sensor and one or more parasitic heat sensing pixels arranged to receive infrared light from different portions of an interior surface of the housing, the method comprising: receiving, by a processing device, one or more readings (P R) from each of said parasitic heat sensing pixels and from each pixel of said pixel array; and generating, by the processing device based on said one or more readings, one or more conversion matrices ( M -1 Clum and M Cpix) for converting said readings (P R) from said parasitic heat sensing pixels into pixel correction values for performing 2D signal correction of signals captured by the image sensor, wherein generating the one or more conversion matrices ( M -1 Clum and M Cpix) comprises: determining by the processing device, for each image pixel of the image sensor and for each of said parasitic heat sensing pixels based on an assumption of the responsivity of each pixel, a relative transfer function corresponding to an etendue ( T i ( x,y)) of each pixel with respect to each of a plurality of zones of said interior surface, wherein the one or more conversion matrices ( M -1 Clum and M Cpix) are determined based on the responsivity ( Resp ( x, y)) of each pixel and the etendue ( T i ( x,y)) of each pixel with respect to each of the plurality of zones of said interior surface. receiving, by a processing device, one or more readings (P R) from each of said parasitic heat sensing pixels and from each pixel of said pixel array; and generating, by the processing device based on said one or more readings, one or more conversion matrices ( M -1 Clum and M Cpix) for converting said readings (P R) from said parasitic heat sensing pixels into pixel correction values for performing 2D signal correction of signals captured by the image sensor, wherein generating the one or more conversion matrices ( M -1 Clum and M Cpix) comprises: determining by the processing device, for each image pixel of the image sensor and for each of said parasitic heat sensing pixels based on an assumption of the responsivity of each pixel, a relative transfer function corresponding to an etendue ( T i ( x,y)) of each pixel with respect to each of a plurality of zones of said interior surface, wherein the one or more conversion matrices ( M -1 Clum and M Cpix) are determined based on the responsivity ( Resp ( x, y)) of each pixel and the etendue ( T i ( x,y)) of each pixel with respect to each of the plurality of zones of said interior surface.
An areal security element having microreflectors, wherein the areal security element has a principal plane and the microreflectors (3, 4) present at least one object (5, 6) which upon tilting and/or rotating the security element has a motion effect (7, 8) which is related to the principal plane, the security element has at least a first and a second microreflector pattern (1, 2) which differ from one another both with regard to the object (5, 6) presented thereby and with regard to the produced motion effect (7, 8), wherein the second microreflector pattern is configured such that the motion effect extends in the principal plane or parallel thereto, and characterized in that the first microreflector pattern is configured such that the motion effect extends at least partly perpendicular to the principal plane.
A pressure sensor device comprising: a header assembly (102, 302); a printed wiring assembly (104, 304) having a pressure sensor mounted thereon; and at least one cylindrical member (106, 200A-200D, 306A-306G) that mechanically couples the printed wiring assembly (104, 304) to the header assembly (102, 302), wherein the at least one cylindrical member (106, 200A-200D, 306A-306G) is inserted into a bored hole in the printed wiring assembly (104, 304), wherein the cylindrical member (106, 206, 306A-306G) has a hollow core, a circular first end attached to the header assembly (102, 302), a circular second end opposite the circular first end, and at least one side extending from the circular first end to the circular second end of the cylindrical member (106, 206, 306A-306G), and wherein the circular second end or the at least one side or both are attached to the printed wiring assembly (104, 304). a header assembly (102, 302); a printed wiring assembly (104, 304) having a pressure sensor mounted thereon; and at least one cylindrical member (106, 200A-200D, 306A-306G) that mechanically couples the printed wiring assembly (104, 304) to the header assembly (102, 302), wherein the at least one cylindrical member (106, 200A-200D, 306A-306G) is inserted into a bored hole in the printed wiring assembly (104, 304), wherein the cylindrical member (106, 206, 306A-306G) has a hollow core, a circular first end attached to the header assembly (102, 302), a circular second end opposite the circular first end, and at least one side extending from the circular first end to the circular second end of the cylindrical member (106, 206, 306A-306G), and wherein the circular second end or the at least one side or both are attached to the printed wiring assembly (104, 304).
A method of preparing a tire with self-sealing properties, the method comprising the steps of: (i) providing a cured tire, the cured tire including a first bead, a second bead, a carcass layer extending from the first bead to the second bead, and an optional innerliner layer disposed interior to the carcass layer; (ii) directly or indirectly applying a sealant composition to at least a portion of the carcass layer or to at least a portion of the optional innerliner layer; and characterised by (iii) directly applying an air barrier composition to at least a portion of the carcass layer or to at least a portion of the optional innerliner layer. (i) providing a cured tire, the cured tire including a first bead, a second bead, a carcass layer extending from the first bead to the second bead, and an optional innerliner layer disposed interior to the carcass layer; (ii) directly or indirectly applying a sealant composition to at least a portion of the carcass layer or to at least a portion of the optional innerliner layer; and characterised by (iii) directly applying an air barrier composition to at least a portion of the carcass layer or to at least a portion of the optional innerliner layer.
A vehicle comprising at least one sensor arranged to determine the width of a gap faced or entered by the vehicle in its direction of travel, a processing unit arranged to compare the determined width of the gap to a set distance thereby to determine if the vehicle and/or an object towed by the vehicle can be driven through the gap, and a driver interface arranged to output a result to a driver of the vehicle if the processing unit determines that the vehicle and/or an object towed by the vehicle can be driven through the gap, characterised in that the processing unit is operable to compare the distance from one edge defining the gap to the vehicle to the distance from the other edge defining the gap to the vehicle so as to determine a misalignment distance, which indicates how misaligned the centre of the vehicle is with the centre of the gap, the driver interface is arranged to output an indication of whether the centres are aligned or not to a driver of the vehicle, and the indication comprises information on how misaligned the centre of the vehicle and the centre of the gap are, including the misalignment distance and the direction the vehicle must move to align the centres.
A depth camera system, comprising: an illumination module (702a, 702b, 702c) that outputs structured light that illuminates a capture area; an image detector module that captures an image of the structured light pattern as reflected from one or more objects within the capture area; and the illumination module (702a, 702b, 702c) including a VCSEL array comprising a plurality of vertical cavity surface emitting lasers "VCSELs", wherein each of the VCSELs emits a separate beam of light, and wherein the plurality of VCSELs collectively emit a light pattern; and projection optics that receives the light pattern emitted by the VCSELs of the VCSEL array and projects the light pattern; wherein the structured light output by the illumination module (702a, 702b, 702c) is created at least in part based on the light pattern projected by the projection optics; wherein the projection optics include: a field lens that receives the beams of light emitted by the VCSELs of the VCSEL array and converges the beams to a single pupil; and an objective lens positioned at the pupil that receives the converged beams from the field lens and diverges the beams to produce the light pattern projected by the projection optics. an illumination module (702a, 702b, 702c) that outputs structured light that illuminates a capture area; an image detector module that captures an image of the structured light pattern as reflected from one or more objects within the capture area; and the illumination module (702a, 702b, 702c) including a VCSEL array comprising a plurality of vertical cavity surface emitting lasers "VCSELs", wherein each of the VCSELs emits a separate beam of light, and wherein the plurality of VCSELs collectively emit a light pattern; and projection optics that receives the light pattern emitted by the VCSELs of the VCSEL array and projects the light pattern; a VCSEL array comprising a plurality of vertical cavity surface emitting lasers "VCSELs", wherein each of the VCSELs emits a separate beam of light, and wherein the plurality of VCSELs collectively emit a light pattern; and projection optics that receives the light pattern emitted by the VCSELs of the VCSEL array and projects the light pattern; wherein the structured light output by the illumination module (702a, 702b, 702c) is created at least in part based on the light pattern projected by the projection optics; wherein the projection optics include: a field lens that receives the beams of light emitted by the VCSELs of the VCSEL array and converges the beams to a single pupil; and an objective lens positioned at the pupil that receives the converged beams from the field lens and diverges the beams to produce the light pattern projected by the projection optics. a field lens that receives the beams of light emitted by the VCSELs of the VCSEL array and converges the beams to a single pupil; and an objective lens positioned at the pupil that receives the converged beams from the field lens and diverges the beams to produce the light pattern projected by the projection optics.
A medical device for implantation in a hip joint of a human patient, the natural hip joint having a ball shaped caput femur as the proximal part of the femoral bone with a convex hip joint surface towards the centre of the hip joint and a bowl shaped acetabulum as part of the pelvic bone with a concave hip joint surface towards the centre of the hip joint, the medical device comprising: an artificial caput femur, comprising a convex surface towards the centre of the hip joint, wherein said artificial convex caput femur is adapted to, when implanted: a. be fixated to the pelvic bone of the human patient, and b. be in movable connection with an artificial acetabulum surface fixated to the femoral bone of the patient, thereby forming a ball and socket joint, characterized in that the medical device further comprises a fixation element comprising a fixation surface adapted to be in contact with the surface of the acetabulum and adapted to fixate the artificial convex caput femur to at least the acetabulum of the pelvic bone. a. be fixated to the pelvic bone of the human patient, and b. be in movable connection with an artificial acetabulum surface fixated to the femoral bone of the patient, thereby forming a ball and socket joint, characterized in that the medical device further comprises a fixation element comprising a fixation surface adapted to be in contact with the surface of the acetabulum and adapted to fixate the artificial convex caput femur to at least the acetabulum of the pelvic bone.
In combination fluticasone and an apparatus for therapeutically treating chronic rhinosinusitis with or without nasal polyps in a patient: means for administering the fluticasone as a liquid aerosol; and means configured for delivering to a location at an interior of a nasal passage of the patient an amount of a pH adjusting material for adjusting a pH in the nasal passage location by an amount ranging from about 0.01 pH units to about 0.5 pH units; wherein the means configured for delivering comprises a housing, a mouthpiece for placing into a mouth of the patient and a nosepiece for placing into a nostril of the patient, whereby exhalation of a breath by the patient into the mouthpiece creates a fluid flow out of the nosepiece; wherein the means for administering is configured to administer the fluticasone at least one of before, after, before and after, and at the same time as the means configured for delivering delivers the pH adjusting material; characterized in that the means for administering the fluticasone as a liquid aerosol is configured to deliver fluticasone in an amount of 100 μg or 200 μg daily in one or two doses, and the mouthpiece is fluidly connected to the housing by a flexible coupling to allow for movement of the mouthpiece relative to the nosepiece. means for administering the fluticasone as a liquid aerosol; and means configured for delivering to a location at an interior of a nasal passage of the patient an amount of a pH adjusting material for adjusting a pH in the nasal passage location by an amount ranging from about 0.01 pH units to about 0.5 pH units; wherein the means configured for delivering comprises a housing, a mouthpiece for placing into a mouth of the patient and a nosepiece for placing into a nostril of the patient, whereby exhalation of a breath by the patient into the mouthpiece creates a fluid flow out of the nosepiece; wherein the means for administering is configured to administer the fluticasone at least one of before, after, before and after, and at the same time as the means configured for delivering delivers the pH adjusting material; characterized in that the means for administering the fluticasone as a liquid aerosol is configured to deliver fluticasone in an amount of 100 μg or 200 μg daily in one or two doses, and the mouthpiece is fluidly connected to the housing by a flexible coupling to allow for movement of the mouthpiece relative to the nosepiece.