mhurhangee/ep-ind-claims huggingface dataset:
Adjustment method for at least one refrigeration system, comprising at least one chamber whose temperature is to be adjusted, said at least one chamber being thermodynamically connected to at least one refrigeration circuit including at least one compressor, wherein said at least one refrigeration circuit comprises at least one fluid and is configured for subjecting said at least one fluid to at least one refrigeration cycle, so as to subtract heat energy from said at least one chamber for obtaining at least one desired temperature (T set) within a hysteresis band (Δ), said adjustment method comprising the following operational steps: A. detecting at least one temperature value (T ext) external with respect to said refrigeration system; B. detecting at least one temperature value inside said chamber (Tint); and being characterized in that it further comprises: C. detecting at least one parameter (w e) associated to one energy optimization priority for said at least one refrigeration system; D. determining, by using one main artificial neural network, at least one optimum offset value (Δ opt) with respect to said desired temperature (T set), as a function of said at least one value of said external temperature (T ext) and said at least one value of said temperature (Tint) inside said chamber, and said parameter (w e) associated to said energy optimization priority; and E. controlling the activation-deactivation of said at least one compressor based on said at least an offset value (Δ opt) thereby determined, and repeating steps A to D until the onset of one predefined stop condition. A. detecting at least one temperature value (T ext) external with respect to said refrigeration system; B. detecting at least one temperature value inside said chamber (Tint); C. detecting at least one parameter (w e) associated to one energy optimization priority for said at least one refrigeration system; D. determining, by using one main artificial neural network, at least one optimum offset value (Δ opt) with respect to said desired temperature (T set), as a function of said at least one value of said external temperature (T ext) and said at least one value of said temperature (Tint) inside said chamber, and said parameter (w e) associated to said energy optimization priority; and E. controlling the activation-deactivation of said at least one compressor based on said at least an offset value (Δ opt) thereby determined, and repeating steps A to D until the onset of one predefined stop condition.
A phased perforating gun orienting system in a horizontal wellbore casing (701, 801, 901) comprising a plurality of upwardly oriented shaped charges (704, 706, 804, 806) and a plurality of downwardly oriented shaped charges (703, 705, 803, 805); each of said upwardly oriented shaped charges and said downwardly oriented shaped charges are spaced apart along a horizontal axis (720, 820, 920) and each of said upwardly oriented shaped charges and said downwardly oriented shaped charges are configured to occupy a distinct plane along said horizontal axis; wherein: said upwardly oriented shaped charges are oriented in an angularly upward direction such that when perforating, said upwardly oriented shaped charges create an upward fracture initiation point (711, 811) in a hydrocarbon formation above said horizontal axis along said wellbore casing; said downwardly oriented shaped charges are oriented in a angularly downward direction such that when perforating, said downwardly oriented shaped charges create a downward fracture initiation point (712, 812) in a hydrocarbon formation below said horizontal axis along said wellbore casing; and said upward fracture initiation point, said downward fracture initiation point and a point along said horizontal axis along said wellbore casing lie in a fracture plane (710, 810, 910); said fracture plane is transversely perpendicular to said horizontal axis. said upwardly oriented shaped charges are oriented in an angularly upward direction such that when perforating, said upwardly oriented shaped charges create an upward fracture initiation point (711, 811) in a hydrocarbon formation above said horizontal axis along said wellbore casing; said downwardly oriented shaped charges are oriented in a angularly downward direction such that when perforating, said downwardly oriented shaped charges create a downward fracture initiation point (712, 812) in a hydrocarbon formation below said horizontal axis along said wellbore casing; and said upward fracture initiation point, said downward fracture initiation point and a point along said horizontal axis along said wellbore casing lie in a fracture plane (710, 810, 910); said fracture plane is transversely perpendicular to said horizontal axis.
A method for reducing occurrence of gases trapped between tooling (100, 110) and a polymeric sheet during manufacture of retroreflective materials, the method comprising: providing a substrate defining opposite peripheral edges (100A, 100B, 100C, 100D) and a molding surface extending between the edges (100A, 100B, 100C, 100D), the molding surface including a plurality of prismatic structures defined by baselines (1A, 1B, 2A, 2B, 3A, 3B), the plurality of prismatic structures defining an average structure height, the molding surface including a plurality of passages (90, 95), each passage (90, 95) located so as to extend across a baseline (1A, 1B, 2A, 2B, 3A, 3B), the passages (90, 95) having an average depth of from 5% to 50% of the average structure height; providing a polymeric sheet defining at least one face; embossing a pattern of the plurality of prismatic structures from the substrate to the face of the polymeric sheet; wherein during the embossing, gases disposed between the substrate and the polymeric sheet are urged through at least a portion of the passages (90, 95), thereby reducing occurrence of trapped gases, wherein each passage (90, 95) is located so as to extend perpendicular to a baseline (1A, 1B, 2A, 2B, 3A, 3B). providing a substrate defining opposite peripheral edges (100A, 100B, 100C, 100D) and a molding surface extending between the edges (100A, 100B, 100C, 100D), the molding surface including a plurality of prismatic structures defined by baselines (1A, 1B, 2A, 2B, 3A, 3B), the plurality of prismatic structures defining an average structure height, the molding surface including a plurality of passages (90, 95), each passage (90, 95) located so as to extend across a baseline (1A, 1B, 2A, 2B, 3A, 3B), the passages (90, 95) having an average depth of from 5% to 50% of the average structure height; providing a polymeric sheet defining at least one face; embossing a pattern of the plurality of prismatic structures from the substrate to the face of the polymeric sheet; wherein during the embossing, gases disposed between the substrate and the polymeric sheet are urged through at least a portion of the passages (90, 95), thereby reducing occurrence of trapped gases, wherein each passage (90, 95) is located so as to extend perpendicular to a baseline (1A, 1B, 2A, 2B, 3A, 3B).
A terminal device, comprising: a terminal device body; a display screen (20, 20A), disposed on the terminal device body, and the display screen (20, 20A) is provided with a light through hole (200, 200A); a camera module (30, 30A), located below the display screen (20, 20A) and having a front end, wherein the front end of the camera module (30, 30A) is mounted to the display screen (20, 20A) and the camera module (30, 30A) is aligned with the light through hole (200, 200A) of the display screen (20, 20A), so that light outside the display screen (20, 20A) is received by the camera module (30, 30A) via the light through hole (200, 200A); and a protective material, characterized in that the protective material is located in the light through hole (200, 200A) and around the periphery of the light through hole (200, 200A), and the protective material covers an exposed portion of the display screen (20, 20A) at the positions of the light through hole (200, 200A). a terminal device body; a display screen (20, 20A), disposed on the terminal device body, and the display screen (20, 20A) is provided with a light through hole (200, 200A); a camera module (30, 30A), located below the display screen (20, 20A) and having a front end, wherein the front end of the camera module (30, 30A) is mounted to the display screen (20, 20A) and the camera module (30, 30A) is aligned with the light through hole (200, 200A) of the display screen (20, 20A), so that light outside the display screen (20, 20A) is received by the camera module (30, 30A) via the light through hole (200, 200A); and a protective material, characterized in that the protective material is located in the light through hole (200, 200A) and around the periphery of the light through hole (200, 200A), and the protective material covers an exposed portion of the display screen (20, 20A) at the positions of the light through hole (200, 200A).
A double row roller bearing for supporting a rotatable circular section component, said roller bearing comprising: an inner ring including a pair of inner races (12, 13), an outer ring including a pair of outer races (18, 19), two rows of rollers (22, 25) mounted between the inner and outer races, each row of which rollingly engages respective races in the inner and outer rings, clamping ring means which surrounds and clamps said inner ring, at least said inner ring and said clamping ring means each comprising two substantially semicircular parts, the relevant semicircular parts being mounted together to provide a circular component for surrounding the rotatable component, characterised in that said clamping ring means surrounds and clamps with said inner ring at a position substantially midway between the axially opposite sides of the inner ring. an inner ring including a pair of inner races (12, 13), an outer ring including a pair of outer races (18, 19), two rows of rollers (22, 25) mounted between the inner and outer races, each row of which rollingly engages respective races in the inner and outer rings, clamping ring means which surrounds and clamps said inner ring, at least said inner ring and said clamping ring means each comprising two substantially semicircular parts, the relevant semicircular parts being mounted together to provide a circular component for surrounding the rotatable component,
A lamp for a precision approach path indicator comprising at least two radiation sources (1, 2, 3, 4) emitting electromagnetic radiation of different wavelengths, a beam of a radiation of a first wavelength (1,2) and a beam of a radiation of a second wavelength (3, 4), a partition for separating the beam of the radiation of the first wavelength (1, 2) from the beam of the radiation of the second wavelength (3, 4), while the partition is having a first width (a), wherein the lamp is further provided with an offsetting element that offsets at least one of the beams towards the other of the beams by a second width (c) to compensate the obstruction created by the partition, characterized in that wherein the offsetting element is a glass prism with two parallel first faces of a width (b), so that when the offsetting element is angled towards the beam of the second wavelength (3, 4) it creates a light path that is offset by the first width (a) of the partition, and with at least one second face angled in respect of the parallel first faces so when the offsetting element is angled towards the beam of the second wavelength (3, 4) the second face is parallel to and below the beam of the first wavelength (1, 2). at least two radiation sources (1, 2, 3, 4) emitting electromagnetic radiation of different wavelengths, a beam of a radiation of a first wavelength (1,2) and a beam of a radiation of a second wavelength (3, 4), a partition for separating the beam of the radiation of the first wavelength (1, 2) from the beam of the radiation of the second wavelength (3, 4), while the partition is having a first width (a), wherein the lamp is further provided with an offsetting element that offsets at least one of the beams towards the other of the beams by a second width (c) to compensate the obstruction created by the partition, characterized in that wherein the offsetting element is a glass prism with two parallel first faces of a width (b), so that when the offsetting element is angled towards the beam of the second wavelength (3, 4) it creates a light path that is offset by the first width (a) of the partition, and with at least one second face angled in respect of the parallel first faces so when the offsetting element is angled towards the beam of the second wavelength (3, 4) the second face is parallel to and below the beam of the first wavelength (1, 2).
A method of detecting an impact of a vehicle with a pedestrian by sensing an initial impact of an object with a bumper of the vehicle characterized by: providing a plurality of sensors laterally distributed across a width of the vehicle to define a sensing plane (30, 30') that extends across the width of the vehicle and above a hood of the vehicle; and confirming that said object is a pedestrian if it is in the sensing plane (52, 30/30') within the prescribed time period after the detected initial impact. providing a plurality of sensors laterally distributed across a width of the vehicle to define a sensing plane (30, 30') that extends across the width of the vehicle and above a hood of the vehicle; and confirming that said object is a pedestrian if it is in the sensing plane (52, 30/30') within the prescribed time period after the detected initial impact.
A method of providing power to one or more tools during a manufacturing process, the method comprising: receiving power at a tool from the robotic device while the tool is attached to the robotic device; performing an operation with the tool while the tool is being powered through the robotic device; receiving a signal indicating a detachment and determining that the tool is in an operational condition; detaching the tool from the robotic device and receiving power at the tool from an alternate power source, the amount of power received from the alternate power source being less than through the robotic device; reattaching the tool to the robotic device with the tool again receiving power through the robotic device; and performing operations with the tool while reattached to the robotic device without determining that the tool is in the operational condition. receiving power at a tool from the robotic device while the tool is attached to the robotic device; performing an operation with the tool while the tool is being powered through the robotic device; receiving a signal indicating a detachment and determining that the tool is in an operational condition; detaching the tool from the robotic device and receiving power at the tool from an alternate power source, the amount of power received from the alternate power source being less than through the robotic device; reattaching the tool to the robotic device with the tool again receiving power through the robotic device; and performing operations with the tool while reattached to the robotic device without determining that the tool is in the operational condition.
A diagnostic imaging agent for use in the diagnosis of early bone metastasis from cancer, comprising trans-1-amino-[ 18 F]fluorocyclobutanecarboxylic acid or a pharmaceutically acceptable salt thereof as an active ingredient, wherein the early bone metastasis is bone metastasis prior to the onset of osteolytic response.
A device arrangement for accumulating excess heat in a natural water-permeable layer and for its recovery, comprising a heat storage filled with water, which constitutes a closed area, separated from the water-permeable layer by means of anti-filtration walls, being vertical or having slope close to vertical, made of the ground surface to a depth below the floor of the water-permeable layer, and also comprising at least one extraction well situated in this area and a heat exchanger, at least one discharge well and at least one pump, wherein the anti-filtration walls are diaphragm walls that constitute a thermally insulating partition, the extraction well and the discharge well are constitued by a dual-function extraction-discharge well equipped with a discharge pipeline and an extraction pipeline hydraulically connected to the pump directly or indirectly, wherein the pump is connected by means of an electric power cable to a frequency converter which has a signal connection to a checking, measuring and control equipment, which furthermore has a signal connection to multilevel temperature and water level measuring probes located in the extraction-discharge well and in at least one control and measurement hole situated within the heat storage and in the heat exchanger, and furthermore the checking, measuring and control equipment has a signal connection to controllable valves situated on hydraulic lines that connect an extraction collector to an extraction pipeline, and to controllable valves situated on hydraulic lines that connect a discharge collector to a discharge pipeline, wherein the extraction and discharge collectors are led to the heat exchanger, and the heat storage is covered on top with a horizontal partition that constitutes an anti-filtration and thermally insulating cover.
Method for extending the operating functionality of a field device of the automation technology from one operating device to at least one other Control unit, comprising - Establishing a wireless communication link between the operating device and the field device via a first communication interface of the operating device, wherein the Operating device at least one operating program with a large number of display elements (AE1, AE2) and operating functions, via which the field device is operated; - Initiate a search for objects in the surrounding area and the control unit via the first control unit. communication interface or a second Communication interface; - In the event that at least one further operating device, which is assigned to the operating device has been found, setting up a wireless Communication connection between the operating device and the additional operating device via the first communication interface, or the second communication interface, whereby on the another operating device runs another operating program; - Transfer of at least one part of the display elements (AE1, AE2) and/or operating functions to the other operating program of the additional operating device; and - Operating the field device using the additional operating device via the display elements transferred to the other operating program (AE1, AE2) or operating functions, wherein, in the event that at least one further operating device not known to the operating device is found, the operating device sends a Suitability test of the additional operating device is carried out, whereby the suitability test checks which of the display elements (AE1, AE2) or the operating functions can be transferred to the additional operating device. - Establishing a wireless communication link between the operating device and the field device via a first communication interface of the operating device, wherein the Operating device at least one operating program with a large number of display elements (AE1, AE2) and operating functions, via which the field device is operated; - Initiate a search for objects in the surrounding area and the control unit via the first control unit. communication interface or a second Communication interface; - In the event that at least one further operating device, which is assigned to the operating device has been found, setting up a wireless Communication connection between the operating device and the additional operating device via the first communication interface, or the second communication interface, whereby on the another operating device runs another operating program; - Transfer of at least one part of the display elements (AE1, AE2) and/or operating functions to the other operating program of the additional operating device; and - Operating the field device using the additional operating device via the display elements transferred to the other operating program (AE1, AE2) or operating functions,
An assembly for an inhalation device, wherein the assembly comprises: - a storage chamber configured to hold a quantity of a substance, - a metering element configured to be moved in a moving direction with respect to the storage chamber, and - a sealing member mechanically cooperating with the metering element, wherein the sealing member comprises an opening which receives the metering element, and wherein the sealing member comprises a sealing lip characterised in that the sealing lip is deflectable in a direction corresponding to the moving direction of the metering element. - a storage chamber configured to hold a quantity of a substance, - a metering element configured to be moved in a moving direction with respect to the storage chamber, and - a sealing member mechanically cooperating with the metering element, wherein the sealing member comprises an opening which receives the metering element, and wherein the sealing member comprises a sealing lip characterised in that the sealing lip is deflectable in a direction corresponding to the moving direction of the metering element.
A wedge for a lead-through system comprising a frame, modules and stay plates, the wedge comprising a first wedge element and a second wedge element placed in line with each other, wherein the wedge is movable between two extremes by means of a socket and a screw, whereby the socket is rotated on the screw, characterised in that the wedge further comprises indication means showing a desired position of the wedge such that one extreme position of the wedge, in which the first and second wedge elements (1, 2) are as close as possible to each other, is indicated in that a mouth of a through opening of the socket and an end surface of the screw are flush with each other.