mhurhangee/ep-ind-claims huggingface dataset:
Separating stage for inertial separation of components contained in a fluid flowing through it, in particular paint particles and/or paint agglomerates, wherein at least one separating segment is provided which has on the inlet side at least one acceleration section for the fluid, in which the fluid is accelerated in a through-flow direction, and in that a first impaction surface for components contained in the fluid is arranged downstream of the acceleration section, characterised in that a second impaction surface is arranged downstream of the first impaction surface, which second impaction surface is a rear side of a boundary wall of the acceleration section, wherein the inner side of the acceleration section serves for acceleration of the fluid and the outer side serves as a curved portion of the acceleration section as the second impaction surface, wherein the first impaction surface has a baffle region and a curved portion following in the flow direction for deflecting the direction of the fluid by more than 270° with respect to the through-flow direction of the fluid in the acceleration section, wherein an end edge (21, 24) of the curved portion of the first impaction surface is oriented towards the second impaction surface, and wherein the curved portion is curved with a constant or decreasing radius of curvature. wherein at least one separating segment is provided which has on the inlet side at least one acceleration section for the fluid, in which the fluid is accelerated in a through-flow direction, and in that a first impaction surface for components contained in the fluid is arranged downstream of the acceleration section, characterised in that a second impaction surface is arranged downstream of the first impaction surface, which second impaction surface is a rear side of a boundary wall of the acceleration section, wherein the inner side of the acceleration section serves for acceleration of the fluid and the outer side serves as a curved portion of the acceleration section as the second impaction surface, wherein the first impaction surface has a baffle region and a curved portion following in the flow direction for deflecting the direction of the fluid by more than 270° with respect to the through-flow direction of the fluid in the acceleration section, wherein an end edge (21, 24) of the curved portion of the first impaction surface is oriented towards the second impaction surface, and wherein the curved portion is curved with a constant or decreasing radius of curvature.
A cable support for supporting a conductor arrangement (6, 6a, 6b, 6c) for producing an electromagnetic field and thereby transferring energy to vehicles on a surface of a route, wherein the cable support arrangement comprises a first supporting layer adapted to position and/or to hold a plurality of line sections of a first electric line, and wherein the cable support arrangement further comprises a second supporting layer adapted to position and/or to hold a plurality of line sections of a second electric line, characterised in that the first and the second supporting layer (10, 20) are foldably connected to each other.
A reusable outer shell for a disposable absorbent insert the outer shell comprising an inner surface intended to face the absorbent insert and an outer surface being opposite to the inner surface, the outer shell having an extension in the longitudinal direction and the transverse direction, the outer shell comprising a front region, a crotch region and a rear region, characterized in that the outer shell comprises a front pocket in the front region and a rear pocket in the rear region, the front pocket being adapted to receive a front portion of the absorbent insert and the rear pocket being adapted to receive a rear portion of the absorbent insert, the front pocket having a front pocket transverse distal edge adapted to extend over the front portion of the absorbent insert and the rear pocket having a rear pocket transverse distal edge adapted to extend over the rear portion of the absorbent insert, the front pocket has a front pocket length (l fp), as measured along a longitudinal centerline (L c) of the outer shell from a front pocket transverse proximal edge to the front pocket transverse distal edge and the rear pocket has a rear pocket length (l rp), as measured along the longitudinal centerline (L c) of the outer shell and from a rear pocket transverse proximal edge to the rear pocket transverse distal edge, and wherein the rear pocket length (l rp) is greater than the front pocket length (l fp), characterized in that the reusable outer shell comprises a front hook member arranged on the inner surface of the outer shell, inside the front pocket and a rear hook member arranged on the inner surface of the outer shell inside the rear pocket, wherein the front hook member has a length (l f) extending in the longitudinal direction and a width (w f) extending in the transverse direction and the rear hook member has a length (l r) extending in the longitudinal direction and a width (w r) extending in the transverse direction.
A circuit board position search device comprising: captured image storage means for storing a captured image for which a characteristic section (3, 3X) with a predetermined shape that is disposed on two predetermined positions on the circuit board is imaged; template storage means for storing a template in which a plurality of simulation points are included that simulate a relative positional relationship of a plurality of feature points of the characteristic section (3, 3X); in-image search means for searching a position of the characteristic section (3, 3X) in the captured image, wherein the in-image search means is configured to determine the position and an orientation of the circuit board based on a relative movement amount of the template determined for superimposing the characteristic section (3, 3X) disposed on the two predetermined positions; and displaying means for displaying such that the plurality of simulation points of the template are recognizable by an operator and displaying the template superimposed on the captured image, wherein the circuit board position search device is configured to determine whether the in-image search means is able to automatically search the position of the characteristic section, wherein the displaying means is configured to operate only when the circuit board position search device determines that the in-image search means is not able to automatically search the position of the characteristic section (3, 3X). captured image storage means for storing a captured image for which a characteristic section (3, 3X) with a predetermined shape that is disposed on two predetermined positions on the circuit board is imaged; template storage means for storing a template in which a plurality of simulation points are included that simulate a relative positional relationship of a plurality of feature points of the characteristic section (3, 3X); in-image search means for searching a position of the characteristic section (3, 3X) in the captured image, wherein the in-image search means is configured to determine the position and an orientation of the circuit board based on a relative movement amount of the template determined for superimposing the characteristic section (3, 3X) disposed on the two predetermined positions; and displaying means for displaying such that the plurality of simulation points of the template are recognizable by an operator and displaying the template superimposed on the captured image, wherein the circuit board position search device is configured to determine whether the in-image search means is able to automatically search the position of the characteristic section, wherein the displaying means is configured to operate only when the circuit board position search device determines that the in-image search means is not able to automatically search the position of the characteristic section (3, 3X).
A method of communication, comprising: determining, at a first node, that radio link failure occurred during handover of an access terminal based on the access terminal attempting a connection re-establishment at the first node after the radio link failure; wherein the first node comprises a target access point for the handover of the access terminal; and reporting the radio link failure to a second node, wherein the first node was not prepared for handover of the access terminal, and wherein reporting the radio link failure comprises providing an indication to the second node that the radio link failure occurred during handover of the access terminal. determining, at a first node, that radio link failure occurred during handover of an access terminal based on the access terminal attempting a connection re-establishment at the first node after the radio link failure; wherein the first node comprises a target access point for the handover of the access terminal; and reporting the radio link failure to a second node, wherein the first node was not prepared for handover of the access terminal, and wherein reporting the radio link failure comprises providing an indication to the second node that the radio link failure occurred during handover of the access terminal.
A device for detecting a region of interest on a delivery object, comprising: a clustering engine; a mapping engine; characterized in that the clustering engine comprises cluster identification data, an item of the cluster identification data representing a cluster of image data items in a training set of image data items; the mapping engine comprises a group of heatmaps, wherein a heatmap is associated with a cluster represented by the cluster identification data, the heatmap is a two-dimensional probability distribution that provides a probability distribution for a probability of a cell belonging to a defined region of interest given the number of blobs in the cell; and the cell is a unit of a grid into which an image data item is tessellated in the training set of image data items; the clustering engine is configured to input an image data item of the delivery object and to use the cluster identification data to associate the input image data item with at least one cluster; the mapping engine being configured to divide the image data item into a grid of cells; determine the number of blobs in each cell of the grid; and use a heatmap of the associated cluster to determine at least one region of interest in the image data item. a clustering engine; a mapping engine; characterized in that the clustering engine comprises cluster identification data, an item of the cluster identification data representing a cluster of image data items in a training set of image data items; the mapping engine comprises a group of heatmaps, wherein a heatmap is associated with a cluster represented by the cluster identification data, the heatmap is a two-dimensional probability distribution that provides a probability distribution for a probability of a cell belonging to a defined region of interest given the number of blobs in the cell; and the cell is a unit of a grid into which an image data item is tessellated in the training set of image data items; a heatmap is associated with a cluster represented by the cluster identification data, the heatmap is a two-dimensional probability distribution that provides a probability distribution for a probability of a cell belonging to a defined region of interest given the number of blobs in the cell; and the cell is a unit of a grid into which an image data item is tessellated in the training set of image data items; the clustering engine is configured to input an image data item of the delivery object and to use the cluster identification data to associate the input image data item with at least one cluster; the mapping engine being configured to divide the image data item into a grid of cells; determine the number of blobs in each cell of the grid; and use a heatmap of the associated cluster to determine at least one region of interest in the image data item. divide the image data item into a grid of cells; determine the number of blobs in each cell of the grid; and use a heatmap of the associated cluster to determine at least one region of interest in the image data item.
An ultrasonic flow meter for measuring the flow of a fluid through a pipeline, comprising: a spool piece including a throughbore and a transducer port, (30a - 30d), wherein the transducer port has a central axis (25a, 35a, 45a) which extends from an open end (30a-1) of the transducer port at the throughbore of the spool piece to a closed end (30a-2) of the transducer port distal the throughbore of the spool piece; an acoustic transducer disposed in the transducer port, wherein the transducer includes a piezoelectric element configured to transmit and receive acoustic signals;; a drain port in fluid communication with the transducer port, wherein the drain port is axially positioned, relative to the central axis (25a, 35a, 45a) of the transducer port, between the open end of the transducer port and the closed end of the transducer port; and a drain conduit having an inlet end coupled to the drain port and an outlet end opposite the inlet end; wherein the drain port is configured to drain a liquid from the transducer port into the inlet end of the drain conduit; wherein the drain conduit includes a valve, wherein the valve has an open position allowing the liquid to flow through the valve and the drain conduit, and a closed position restricting the liquid through the valve and the drain conduit; an actuator adapted to actuate the valve between the open position and the closed position; characterized by: an electronics package coupled to the actuator, wherein the electronics package is configured to monitor the acoustic signals and determine the validity of the acoustic signal, and wherein the electronics package is configured to control the actuator to maintain the valve in the closed position when the acoustic signals are valid and transition the valve from the closed position to the open position when the acoustic signals are invalid. a spool piece including a throughbore and a transducer port, (30a - 30d), wherein the transducer port has a central axis (25a, 35a, 45a) which extends from an open end (30a-1) of the transducer port at the throughbore of the spool piece to a closed end (30a-2) of the transducer port distal the throughbore of the spool piece; an acoustic transducer disposed in the transducer port, wherein the transducer includes a piezoelectric element configured to transmit and receive acoustic signals;; a drain port in fluid communication with the transducer port, wherein the drain port is axially positioned, relative to the central axis (25a, 35a, 45a) of the transducer port, between the open end of the transducer port and the closed end of the transducer port; and a drain conduit having an inlet end coupled to the drain port and an outlet end opposite the inlet end;
A vacuum gripping device (10, 60) - having a plurality of suction bodies disposed adjacent to one another at suction points (26a-26e) of a working surface of a gripper housing, each of which has a suction chamber that is to abut against a workpiece that is to be gripped, - each suction point (26a-26e) having an allocated suction valve, wherein each suction valve has a vacuum supply side that is to be connected to a vacuum supply device, and a suction side connected to the suction chamber of the suction body allocated thereto, wherein the suction valve for each suction point (26a, 26e) has a valve body that can move between an open position and a closed position, wherein the valve body is disposed at a flexible control membrane, which delimits a control chamber such that the valve body can move as a result of a deformation of the control membrane from the open position to the closed position depending on a vacuum occurring in the control chamber, and wherein a membrane sheet extending over several or all of the suction points (26a-26e) is disposed in the gripper housing such that the control membranes for several or all of the suction valves are formed by control sections of the membrane sheet, characterized in that the gripper housing comprises a housing upper part, and a housing lower part having the working surface, wherein the membrane sheet is disposed between the housing upper part and the housing lower part. - having a plurality of suction bodies disposed adjacent to one another at suction points (26a-26e) of a working surface of a gripper housing, each of which has a suction chamber that is to abut against a workpiece that is to be gripped, - each suction point (26a-26e) having an allocated suction valve, wherein each suction valve has a vacuum supply side that is to be connected to a vacuum supply device, and a suction side connected to the suction chamber of the suction body allocated thereto,
An apparatus for reducing condensate re-evaporation comprising: a supply duct (108, 408); a return duct (106, 406) fluidly coupled to the supply duct (108, 408); a first evaporator (102, 402) disposed between the supply duct (108, 408) and the return duct (106, 406); a second evaporator (104, 404) disposed between the supply duct (108, 408) and the return duct (106, 406); a fresh-air intake (112, 412) disposed between the supply duct (108, 408) and the return duct (106, 406) upstream of the first evaporator (102, 402) and the second evaporator (104, 404); a first plurality of dampers (114, 414) disposed upstream of the first evaporator (102, 402); a second plurality of dampers (116, 416) disposed upstream of the second evaporator (104, 404); characterised in that the apparatus further comprising: a divider panel disposed between the first evaporator (102, 402) and the second evaporator (104, 404), the divider panel directing air egressing the first plurality of dampers (114, 414) across the first evaporator (102, 402) and air egressing the second plurality of dampers (116, 416) across the second evaporator (104, 404), said first evaporator (102, 402) is disposed above the second evaporator (106, 406) a supply duct (108, 408); a return duct (106, 406) fluidly coupled to the supply duct (108, 408); a first evaporator (102, 402) disposed between the supply duct (108, 408) and the return duct (106, 406); a second evaporator (104, 404) disposed between the supply duct (108, 408) and the return duct (106, 406); a fresh-air intake (112, 412) disposed between the supply duct (108, 408) and the return duct (106, 406) upstream of the first evaporator (102, 402) and the second evaporator (104, 404); a first plurality of dampers (114, 414) disposed upstream of the first evaporator (102, 402); a second plurality of dampers (116, 416) disposed upstream of the second evaporator (104, 404);
A method of controlling access of a client to a service of a hearing instrument, the method comprising the steps of: requesting access of the client to the service of the hearing instrument by providing a client authenticator to the hearing instrument; authenticating the client based on a validation of the provided client authenticator by the hearing instrument; characterized in that upon successful authentication, comparing a security level associated with the service requested by the client with a highest security level assigned to the client by the hearing instrument, wherein the security level is selected from a plurality of hierarchically structured security levels, and granting access of the client to the service of the hearing instrument, if the requested security level is below or equal to the highest security level assigned to the client. requesting access of the client to the service of the hearing instrument by providing a client authenticator to the hearing instrument; authenticating the client based on a validation of the provided client authenticator by the hearing instrument; characterized in that upon successful authentication, comparing a security level associated with the service requested by the client with a highest security level assigned to the client by the hearing instrument, wherein the security level is selected from a plurality of hierarchically structured security levels, and granting access of the client to the service of the hearing instrument, if the requested security level is below or equal to the highest security level assigned to the client.
A compressor motor comprising: a rotor; and a stator placed radially outside the rotor, wherein the rotor has a rotor core, and a plurality of magnets arrayed on the rotor core in its circumferential direction at center angles of equal intervals, characterized in that given an axial length L of the rotor core, a radial length D of the rotor core and a thickness t of the magnets, it is satisfied that L / D < 0.7 and that t > K × N / L 1.5 × D × P where P is a number of poles, K is 100000, and N is a factor that is determined by cylinder capacity of the compressor and refrigerant type wherein, - when the refrigerant type is R410A and • the cylinder capacity is 5 - 12 cc, N is 1; • the cylinder capacity is 12 - 16 cc, N is 2; • the cylinder capacity is 16-20 cc, N is 2.5; • the cylinder capacity is 20 - 30 cc, N is 3; and - when the refrigerant type is R22A and • the cylinder capacity is 5 - 18 cc, N is 1; • the cylinder capacity is 18 - 23 cc, N is 2; • the cylinder capacity is 23 - 29 cc, N is 2.5; • the cylinder capacity is 29 - 43 cc, N is 3; and - when the refrigerant type is CO 2 and • the cylinder capacity is 2 - 4 cc, N is 3; • the cylinder capacity is 4 - 7 cc, N is 4. a rotor; and a stator placed radially outside the rotor, wherein the rotor has a rotor core, and a plurality of magnets arrayed on the rotor core in its circumferential direction at center angles of equal intervals, - when the refrigerant type is R410A and • the cylinder capacity is 5 - 12 cc, N is 1; • the cylinder capacity is 12 - 16 cc, N is 2; • the cylinder capacity is 16-20 cc, N is 2.5; • the cylinder capacity is 20 - 30 cc, N is 3; and • the cylinder capacity is 5 - 12 cc, N is 1; • the cylinder capacity is 12 - 16 cc, N is 2; • the cylinder capacity is 16-20 cc, N is 2.5; • the cylinder capacity is 20 - 30 cc, N is 3; and - when the refrigerant type is R22A and • the cylinder capacity is 5 - 18 cc, N is 1; • the cylinder capacity is 18 - 23 cc, N is 2; • the cylinder capacity is 23 - 29 cc, N is 2.5; • the cylinder capacity is 29 - 43 cc, N is 3; and • the cylinder capacity is 5 - 18 cc, N is 1; • the cylinder capacity is 18 - 23 cc, N is 2; • the cylinder capacity is 23 - 29 cc, N is 2.5; • the cylinder capacity is 29 - 43 cc, N is 3; and - when the refrigerant type is CO 2 and • the cylinder capacity is 2 - 4 cc, N is 3; • the cylinder capacity is 4 - 7 cc, N is 4. • the cylinder capacity is 2 - 4 cc, N is 3; • the cylinder capacity is 4 - 7 cc, N is 4.
Method for detecting a status of a film in a region to be monitored, wherein the region to be monitored is an area under cultivation in which an agricultural product is cultivated, wherein the method has the following steps: reading at least one ground temperature value in the region to be monitored and weather information, which comprises at least a value of an air temperature in an environment of the region to be measured; and determining film status information representing the status of the film by using the at least one ground temperature value and the weather information in order to detect the status of the film. reading at least one ground temperature value in the region to be monitored and weather information, which comprises at least a value of an air temperature in an environment of the region to be measured; and determining film status information representing the status of the film by using the at least one ground temperature value and the weather information in order to detect the status of the film.