mhurhangee/ep-ind-claims huggingface dataset:
A foaming printing method comprising: producing and programming a design being formed on a substrate using a computer program; forming the design on a plate, wherein the plate is a mesh member made of polyester or stainless steel and an aluminum frame arranged along the outline of the mesh member and the mesh member has a mesh dernier ranging from 25 to 30; removing a part of a surface of the substrate along the design by forming a design groove constituting the design; combining the substrate and the plate to coincide a designed portion formed on the plate and a removed portion of the substrate; printing a foam constituting the design on the plate combined with the substrate; separating the plate from the substrate and drying the substrate; and applying a pressure to the foam passing the plate to be set on the substrate to be foamed, wherein the foam passes the designed portion of the plate to be set on the removed portion of the substrate during the printing, wherein the forming the design on the plate further includes: coating a photoresist on the plate; printing out the design on a light-transmittable film; and combining the plate with the film and removing the photoresist overlapped with the design printed out on the film, wherein the photoresist is removed to form the design on the plate. producing and programming a design being formed on a substrate using a computer program; forming the design on a plate, wherein the plate is a mesh member made of polyester or stainless steel and an aluminum frame arranged along the outline of the mesh member and the mesh member has a mesh dernier ranging from 25 to 30; removing a part of a surface of the substrate along the design by forming a design groove constituting the design; combining the substrate and the plate to coincide a designed portion formed on the plate and a removed portion of the substrate; printing a foam constituting the design on the plate combined with the substrate; separating the plate from the substrate and drying the substrate; and applying a pressure to the foam passing the plate to be set on the substrate to be foamed, wherein the foam passes the designed portion of the plate to be set on the removed portion of the substrate during the printing, wherein the forming the design on the plate further includes: coating a photoresist on the plate; printing out the design on a light-transmittable film; and combining the plate with the film and removing the photoresist overlapped with the design printed out on the film, wherein the photoresist is removed to form the design on the plate.
A method for controlling a radio access network, performed by an active Wavelength Division Multiplexing, WDM, equipment, comprising transmitting a management request to a Radio Remote Unit, RRU, or Active Antenna Unit, AAU, via a passive wavelength division multiplexing and demultiplexing equipment, wherein the passive wavelength division multiplexing and demultiplexing equipment is connected with the active WDM equipment through an optical fiber; characterized by further comprising receiving a management request response corresponding to the management request from the RRU or AAU via the passive wavelength division multiplexing and demultiplexing equipment, the management request response carrying second status information, the second status information being used to indicate a status of a color optical module in the RRU or AAU, the RRU or AAU being provided with the color optical module, the color optical module being connected with one port of the passive wavelength division multiplexing and demultiplexing equipment, and the passive wavelength division multiplexing and demultiplexing equipment being configured to multiplex and transmit multiple wavelengths from different RRUs or AAUs; wherein the status of the color optical module comprises at least one of: driving voltage, driving current, transmitting optical power, or receiving optical power. transmitting a management request to a Radio Remote Unit, RRU, or Active Antenna Unit, AAU, via a passive wavelength division multiplexing and demultiplexing equipment, wherein the passive wavelength division multiplexing and demultiplexing equipment is connected with the active WDM equipment through an optical fiber; characterized by further comprising receiving a management request response corresponding to the management request from the RRU or AAU via the passive wavelength division multiplexing and demultiplexing equipment, the management request response carrying second status information, the second status information being used to indicate a status of a color optical module in the RRU or AAU, the RRU or AAU being provided with the color optical module, the color optical module being connected with one port of the passive wavelength division multiplexing and demultiplexing equipment, and the passive wavelength division multiplexing and demultiplexing equipment being configured to multiplex and transmit multiple wavelengths from different RRUs or AAUs; wherein the status of the color optical module comprises at least one of: driving voltage, driving current, transmitting optical power, or receiving optical power.
A stator of an electronically commutated direct-current motor, having a stator core, an insulating cap, a stator winding and a winding interconnection, wherein the winding interconnection consists of a plurality of sheet metal elements and a plurality of insulating elements which are arranged between the sheet metal elements, wherein the sheet metal elements and the insulating elements are fixed on the insulating cap by a holder, and wherein the winding interconnection is received in a receiving region bounded by the insulating cap and the holder, characterised in that the sheet metal elements have centering portions radially guided on a component part bounding the receiving region and in that at least the centering portions of one sheet metal element are axially supported in the receiving region, in particular the insulating cap.
Tooling adapted to manufacture a washer comprising - a lower part comprising a housing on a first surface, extended along an axis, said housing adapted to house a rivet shaft, - an upper part comprising a supporting surface adapted to be positioned and fixed with the first surface of the lower part, said upper part comprising - a seat on the supporting surface of the upper part adapted to press a rivet head, - a passageway, extended along an axis, passing through the upper part providing an open access to the seat of the supporting surface configured as - guiding means for a perforating tool, wherein the lower part and the upper part are adapted for being positioned and fixed in such a way that the axis of the housing coincides with the axis of the passageway of the upper part,and characterised in that the lower part is formed by two pieces, detachable rivet supporting piece and base such that the detachable rivet supporting piece comprises the housing adapted for receiving a rivet shaft and the base is adapted to receive the rivet supporting piece in a first space. - a lower part comprising a housing on a first surface, extended along an axis, said housing adapted to house a rivet shaft, - an upper part comprising a supporting surface adapted to be positioned and fixed with the first surface of the lower part, said upper part comprising - a seat on the supporting surface of the upper part adapted to press a rivet head, - a passageway, extended along an axis, passing through the upper part providing an open access to the seat of the supporting surface configured as - guiding means for a perforating tool, - a seat on the supporting surface of the upper part adapted to press a rivet head, - a passageway, extended along an axis, passing through the upper part providing an open access to the seat of the supporting surface configured as - guiding means for a perforating tool,
A control method for displaying a network-state identifier, said method being performed by an electronic device (101, 120), the electronic device (101, 120) supporting a dual connection mode in which the electronic device (101, 120) is capable of establishing a first communication connection with a first network device (102, 110) and is capable of establishing a second communication connection with a second network device (103, 110), wherein each of the first network device (102, 110) and the second network device (103, 110) is a network device in a fifth-generation, 5G, non-standalone, NSA, network; the first network device (102, 110) is an evolved fourth-generation, 4G, base station; the second network device (103, 110) is a 5G base station, a core network of the 5G NSA network is a next-generation core network, NGC, the first network device (102, 110) is in a communication connection with the second network device (103, 110), and the first network device (102, 110) is in a communication connection with the NGC, the method being characterized in that it comprises: acquiring (201, 301, 401) a target delay of uplink data in response to the electronic device (101, 120) being in a service state, wherein the service state is an eMBB service state or a NR uRLLC service state, and the target delay of uplink data is a delay time between the electronic device and any of the first network device (102, 110) and second network device (103, 110); determining (202, 302, 402) a target network-state identifier of a current communication state of the electronic device (101, 120) according to the target delay of uplink data, wherein the target network-state identifier comprises at least one of a NR uRLLC identifier, a 4G identifier, and a 5G identifier; and displaying (203, 303) the target network-state identifier on a display interface of the electronic device (101, 120). acquiring (201, 301, 401) a target delay of uplink data in response to the electronic device (101, 120) being in a service state, wherein the service state is an eMBB service state or a NR uRLLC service state, and the target delay of uplink data is a delay time between the electronic device and any of the first network device (102, 110) and second network device (103, 110); determining (202, 302, 402) a target network-state identifier of a current communication state of the electronic device (101, 120) according to the target delay of uplink data, wherein the target network-state identifier comprises at least one of a NR uRLLC identifier, a 4G identifier, and a 5G identifier; and displaying (203, 303) the target network-state identifier on a display interface of the electronic device (101, 120).
A method for the moisture-proof covering of a connection point between an electrical conductor consisting of individual wires, which conductor is surrounded by an insulation, and a contact element made of metal, with which the conductor is initially stripped at its end by removal of the insulation, with which the stripped end of the conductor is then connected in the connection point electrically conductively with the contact element and with which finally curable sealing material is applied as a covering consisting of insulation material from above onto the connection point between conductor and contact element, which during the application is flowable and subsequently is converted into a mechanically stable state by curing, characterized in - that after completion of the connection point initially before the application of the sealing material a distance retainer, which is smaller in area than the surface of the contact element, is attached to the contact element, - that then a film made of insulation material abutting against the insulation of the conductor and at least partially against the contact element is positioned underneath the connection point and - that subsequently the curable sealing material is applied to the conductor, which extends beyond the insulation of the conductor and the contact element and which is firmly connected to the film. - that after completion of the connection point initially before the application of the sealing material a distance retainer, which is smaller in area than the surface of the contact element, is attached to the contact element, - that then a film made of insulation material abutting against the insulation of the conductor and at least partially against the contact element is positioned underneath the connection point and - that subsequently the curable sealing material is applied to the conductor, which extends beyond the insulation of the conductor and the contact element and which is firmly connected to the film.
A luminaire for room lighting comprising a first plate and a second plate, each composed of a lightpermeable material, wherein a translucent material is at least regionally arranged between the first plate and the second plate, wherein one or more light sources (16, 18, 20) are arranged between the first plate and the second plate and emit light through one or more recesses in the first and/or the second plate, wherein the spacing between the first plate and the second plate is at least ten times smaller than the largest extent of the first or second plate in a spatial direction, characterized in that the light sources (16, 18, 20) comprise a first group of light sources which emit light upwardly and only through recesses of the first plate and/or the light sources (16, 18, 20) comprise a second group of light sources which emit light downwardly and only through recesses of the second plate, and the light sources (16, 18, 20) furthermore comprise a third group of light sources which emit light laterally away from the luminaire and only through the translucent material. a first plate and a second plate, each composed of a lightpermeable material, wherein a translucent material is at least regionally arranged between the first plate and the second plate, wherein one or more light sources (16, 18, 20) are arranged between the first plate and the second plate and emit light through one or more recesses in the first and/or the second plate, wherein the spacing between the first plate and the second plate is at least ten times smaller than the largest extent of the first or second plate in a spatial direction, characterized in that the light sources (16, 18, 20) comprise a first group of light sources which emit light upwardly and only through recesses of the first plate and/or the light sources (16, 18, 20) comprise a second group of light sources which emit light downwardly and only through recesses of the second plate, and the light sources (16, 18, 20) furthermore comprise a third group of light sources which emit light laterally away from the luminaire and only through the translucent material.
An image processing apparatus, comprising: first obtaining means configured to obtain a first two-dimensional tomographic image and a second two-dimensional tomographic image, the first two-dimensional tomographic image and the second two-dimensional tomographic image being obtained based on measurement light controlled to scan an identical position of an eye; setting means configured to set a first area and a second area for the first two-dimensional tomographic image, the first area and the second area overlapping each other in a partial area in a horizontal direction of the first two-dimensional tomographic image; second obtaining means configured to obtain a positional deviation amount between the first two-dimensional tomographic image and the second two-dimensional tomographic image in each of the first area and the second area; and determination means configured to determine a moving amount of the second two-dimensional tomographic image with respect to the first two-dimensional tomographic image in an area where the first area and the second area overlap based on the positional deviation amount in the first area and the positional deviation amount in the second area. first obtaining means configured to obtain a first two-dimensional tomographic image and a second two-dimensional tomographic image, the first two-dimensional tomographic image and the second two-dimensional tomographic image being obtained based on measurement light controlled to scan an identical position of an eye; setting means configured to set a first area and a second area for the first two-dimensional tomographic image, the first area and the second area overlapping each other in a partial area in a horizontal direction of the first two-dimensional tomographic image; second obtaining means configured to obtain a positional deviation amount between the first two-dimensional tomographic image and the second two-dimensional tomographic image in each of the first area and the second area; and determination means configured to determine a moving amount of the second two-dimensional tomographic image with respect to the first two-dimensional tomographic image in an area where the first area and the second area overlap based on the positional deviation amount in the first area and the positional deviation amount in the second area.
A method of operating a heat exchanger as a condenser in a refrigeration cycle device, the heat exchanger (23, 51) comprising: a heat transfer pipe in which refrigerant flows which is HFO1123 refrigerant or a refrigerant mixture containing the HFO1123 refrigerant; and a spiral groove formed at an inner peripheral surface of the heat transfer pipe, wherein a height of an inner wall of the groove in a radial direction of the heat transfer pipe is equal to or greater than 0.1 [mm], the method comprising establishing a flow of the refrigerant or refrigerant mixture in the heat transfer pipe with a wetted area S × L/cosθ which, when a wetted edge length of the heat transfer pipe is S, an inclination angle between a pipe axis direction of the heat transfer pipe and a longitudinal direction of the groove in a section of the heat transfer pipe parallel with the pipe axis direction is θ, and a length of the heat transfer pipe is L, the inclination angle θ is an acute angle, satisfies S × L / cos θ ≥ 0.5 m 2, and with a flow velocity of the refrigerant in the heat transfer pipe equal to or greater than 50 [kg/(s·m 2)] and equal to or less than 150 [kg/(s·m 2)]. a heat transfer pipe in which refrigerant flows which is HFO1123 refrigerant or a refrigerant mixture containing the HFO1123 refrigerant; and a spiral groove formed at an inner peripheral surface of the heat transfer pipe, wherein a height of an inner wall of the groove in a radial direction of the heat transfer pipe is equal to or greater than 0.1 [mm], the method comprising establishing a flow of the refrigerant or refrigerant mixture in the heat transfer pipe with a wetted area S × L/cosθ which, when a wetted edge length of the heat transfer pipe is S, an inclination angle between a pipe axis direction of the heat transfer pipe and a longitudinal direction of the groove in a section of the heat transfer pipe parallel with the pipe axis direction is θ, and a length of the heat transfer pipe is L, the inclination angle θ is an acute angle, satisfies S × L / cos θ ≥ 0.5 m 2, and with a flow velocity of the refrigerant in the heat transfer pipe equal to or greater than 50 [kg/(s·m 2)] and equal to or less than 150 [kg/(s·m 2)].
A coating material for protection against microorganism infestation on surfaces exposed to the effects of damp or water; said coating material comprising a biocide which is bound in a carrier material composed of particulate solids and which is released retardedly therefrom, wherein the particulate solids of the carrier material are microcapsules with a wall material of a formaldehyde-melamine resin, characterized in that the coating material having a pH of at least 11.0 and wherein the biocide is a zinc pyrithione, 4,5-dichloro-2-octylisothiazolin-3-one, 3-iodo-2-propynyl N-butylcarbamate, 2-n-octylisothiazolin-3-one, methyl 1H-benzimidazol-2-ylcarbamate, N 2 -t-butyl-N 4 -ethyl-6-methylthio-1,3,5-triazine-2,4-diyldiamine, 2-methylthio-4-butylamino-6-cyclopropylamino-s-triazine, 3-(4-isopropylphenyl)-N,N-dimethylurea and N'-(3,4-dichlorophenyl)-N,N-dimethylurea or a mixture of two or more of these compounds.
Self-supporting electrical cable for an electric machine, in particular a transformer or a throttle, comprising: a number of layers (6, 7, 8) of cable sections, each of which consists of individual wires, wherein a layer (4; 5) containing a curable polymer substance and functioning as a support is formed between two adjacent layers (6, 7; 7, 8), in each case and the individual wires are coated with this polymer substance, wherein in a cured state of the polymer substance a self-supporting composite cable is produced.
A ride system comprising: a ride vehicle configured to move along a ride path at a first speed in a forward direction; a display system proximate the ride path, wherein the display system is configured to display imagery of an object moving at a second speed and away from the forward direction, wherein the second speed is based on a position of the ride vehicle, the first speed of the ride vehicle, or a combination thereof; and a control system comprising a processor and a memory device communicatively coupled to the processor and configured to store instructions to cause the processor to: provide a first control signal to cause the display system to change the second speed of the imagery based on the position of the ride vehicle, the first speed of the ride vehicle, or a combination thereof. a ride vehicle configured to move along a ride path at a first speed in a forward direction; a display system proximate the ride path, wherein the display system is configured to display imagery of an object moving at a second speed and away from the forward direction, wherein the second speed is based on a position of the ride vehicle, the first speed of the ride vehicle, or a combination thereof; and a control system comprising a processor and a memory device communicatively coupled to the processor and configured to store instructions to cause the processor to: provide a first control signal to cause the display system to change the second speed of the imagery based on the position of the ride vehicle, the first speed of the ride vehicle, or a combination thereof.
A method for identifying macrophage subtype M1 and macrophage subtype M2, wherein the subtype M1 and the subtype M2 are identified based on a spectral characteristic obtained with an organic compound added; the organic compound is a dye compound having a molecular weight of 2000 or less; and the organic compound comprises one or more compounds selected from compounds,,,,,, to,,, to,, to,,,, to, to,,, to,, and,,, to,, to,, and,,,,,,,,, and, and,,,,,, to and shown below: the subtype M1 and the subtype M2 are identified based on a spectral characteristic obtained with an organic compound added; the organic compound is a dye compound having a molecular weight of 2000 or less; and the organic compound comprises one or more compounds selected from compounds,,,,,, to,,, to,, to,,,, to, to,,, to,, and,,, to,, to,, and,,,,,,,,, and, and,,,,,, to and shown below:,,,,,, to,,, to,, to,,,, to, to,,, to,, and,,, to,, to,, and,,,,,,,,, and, and,,,,,, to and shown below: