mhurhangee/ep-ind-claims huggingface dataset:
A connection casing comprising a body (10, 20, 510) with a substantially closed outer perimeter, an open top end (21A, 520) and a substantially closed bottom (10, 530), a space being formed within the connection casing (400, 500), the bottom comprising at least one planar surface section (11A, 11B, 11C, 540) having an outer surface and being provided with at least one lead-in (18A, 18B, 18C, 18D, 550), characterized in that at least one lead-in (18C, 550) is formed as a combined cable and tube lead-in (18C, 550) comprising a lead in element extending outwards from the outer surface of the planar surface section (11B, 540) along an axial direction being perpendicular to the outer surface of the planar surface section (11B, 540), the lead-in element being formed as an integral part of the connection casing (400, 500), the lead-in element comprising a collar extending axially outwards from the outer surface of the planar surface section (11B, 540) and a flange extending axially outwards from the collar, the lead-in element forming a cable lead-in provided with strain relief positioned within the flange, an opening in the planar surface section (11B, 540) extending through the planar surface section (11B, 540), the opening being enclosed by the lead in element, the opening forming a tube lead-in, wherein the lead-in element is arranged to be cut off from the planar surface section (11B, 540) along a cut-off line passing through a bottom of the collar by cutting along the outer surface of the planar surface section (11B, 540) in order to remove the lead-in element and thereby expose the tube lead-in. a lead in element extending outwards from the outer surface of the planar surface section (11B, 540) along an axial direction being perpendicular to the outer surface of the planar surface section (11B, 540), the lead-in element being formed as an integral part of the connection casing (400, 500), the lead-in element comprising a collar extending axially outwards from the outer surface of the planar surface section (11B, 540) and a flange extending axially outwards from the collar, the lead-in element forming a cable lead-in provided with strain relief positioned within the flange, an opening in the planar surface section (11B, 540) extending through the planar surface section (11B, 540), the opening being enclosed by the lead in element, the opening forming a tube lead-in, wherein the lead-in element is arranged to be cut off from the planar surface section (11B, 540) along a cut-off line passing through a bottom of the collar by cutting along the outer surface of the planar surface section (11B, 540) in order to remove the lead-in element and thereby expose the tube lead-in.
A method of operating a navigation device, comprising the steps of: receiving a request on an input device of the navigation device for display of a location of the navigation device; determining at least one of a last known location of the navigation device and a current location of the navigation device in numeric coordinate form using signals received from satellites; comparing the determined at least one location to stored map information to determine a roadway of the stored map information corresponding to the at least one location; reviewing the stored map information in one direction to determine a first cross roadway, crossing the roadway; reviewing the stored map information in an opposite direction to determine a second cross roadway, crossing the roadway; determining a cross roadway of the first and the second cross roadways nearer to the at least one location; converting the numeric coordinates of the determined at least one location into a text string, wherein the text string comprises a description of the at least one location in relation to the determined nearer roadway crossing of the stored map information; and displaying the text string representative of the determined at least one location on a display of the navigation device. receiving a request on an input device of the navigation device for display of a location of the navigation device; determining at least one of a last known location of the navigation device and a current location of the navigation device in numeric coordinate form using signals received from satellites; comparing the determined at least one location to stored map information to determine a roadway of the stored map information corresponding to the at least one location; reviewing the stored map information in one direction to determine a first cross roadway, crossing the roadway; reviewing the stored map information in an opposite direction to determine a second cross roadway, crossing the roadway; determining a cross roadway of the first and the second cross roadways nearer to the at least one location; converting the numeric coordinates of the determined at least one location into a text string, wherein the text string comprises a description of the at least one location in relation to the determined nearer roadway crossing of the stored map information; and displaying the text string representative of the determined at least one location on a display of the navigation device.
A wireless communication system for a train, comprising: a plurality of antennas (5 a-n) arranged on an exterior side of the train; an internal local area network inside the train; at least one router in the train for receiving and transmitting wireless voice communication and data communication to and from a stationary communication server outside the train via said antennas, through at least one exterior mobile network (4a, 4b, 4c), the at least one exterior mobile network providing at least two concurrently useable data links; wherein the internal LAN provides WiFi communication between the at least one router and at least one mobile terminal located inside the train; characterized in that the router is arranged to transfer wireless voice communication via voice over WiFi, VoWIFI, between the at least one mobile terminal and the exterior mobile network and in that the wireless communication system further comprises at least one controller arranged to evaluate the quality of said data links on a host layer and to assign data streams to said data links at least partly based on said evaluated quality. a plurality of antennas (5 a-n) arranged on an exterior side of the train; an internal local area network inside the train; at least one router in the train for receiving and transmitting wireless voice communication and data communication to and from a stationary communication server outside the train via said antennas, through at least one exterior mobile network (4a, 4b, 4c), the at least one exterior mobile network providing at least two concurrently useable data links; wherein the internal LAN provides WiFi communication between the at least one router and at least one mobile terminal located inside the train; characterized in that the router is arranged to transfer wireless voice communication via voice over WiFi, VoWIFI, between the at least one mobile terminal and the exterior mobile network and in that the wireless communication system further comprises at least one controller arranged to evaluate the quality of said data links on a host layer and to assign data streams to said data links at least partly based on said evaluated quality.
A method for determining orientation of a vehicle relative to a surface, the vehicle having: - a first chassis section; - a second chassis section; - a hinge joint connecting the first and second chassis sections (12, 14) such that the first and second chassis sections (12, 14) are capable of rotation with respect to each other in at least a first direction; and - a wheel configuration provided by - a first wheel provided as a drive wheel and mounted to one of the first and second chassis sections (12, 14); and - a second wheel provided as an omni-wheel and mounted to the other of the first and second chassis sections (12, 14); the method comprising: - providing vehicle geometric data defining at least a distance between the hinge joint and a center of the first and second wheels (16, 18), respectively, and a diameter of each of the first and second wheels (16, 18); - providing surface geometric data defining a curvature of the surface; - measuring an angle of rotation about the hinge joint; and - determining an orientation of the vehicle relative to the surface based on the vehicle geometric data, the surface geometric data, and the measured angle of rotation. - a first chassis section; - a second chassis section; - a hinge joint connecting the first and second chassis sections (12, 14) such that the first and second chassis sections (12, 14) are capable of rotation with respect to each other in at least a first direction; and - a wheel configuration provided by - a first wheel provided as a drive wheel and mounted to one of the first and second chassis sections (12, 14); and - a second wheel provided as an omni-wheel and mounted to the other of the first and second chassis sections (12, 14); - a first wheel provided as a drive wheel and mounted to one of the first and second chassis sections (12, 14); and - a second wheel provided as an omni-wheel and mounted to the other of the first and second chassis sections (12, 14); - providing vehicle geometric data defining at least a distance between the hinge joint and a center of the first and second wheels (16, 18), respectively, and a diameter of each of the first and second wheels (16, 18); - providing surface geometric data defining a curvature of the surface; - measuring an angle of rotation about the hinge joint; and - determining an orientation of the vehicle relative to the surface based on the vehicle geometric data, the surface geometric data, and the measured angle of rotation.
A receiver unit comprising a) a plurality of moveable membranes, and b) a moving armature type motor being adapted to drive a first and a second moveable membrane in accordance with an incoming electrical drive signal, wherein the first and second moveable membranes have different frequency responses, and wherein a combined acoustical back volume is formed by a combination of two or more acoustical back volumes, and wherein the moving armature type motor is positioned within said combined acoustical back volume. a) a plurality of moveable membranes, and b) a moving armature type motor being adapted to drive a first and a second moveable membrane in accordance with an incoming electrical drive signal,
A method for predicting the risk of getting a cardiovascular event in a female subject comprising: • determining the level of pro-neurotensin 1-117 in a bodily fluid obtained from said female subject; and • correlating said level of pro-neurotensin 1-117 with the risk of getting a cardiovascular event, wherein an elevated level is predictive of an enhanced risk of getting a cardiovascular event, wherein said cardiovascular event is an acute cardiovascular event selected from the group comprising myocardial infarction, stroke, acute heart failure and cardiovascular death related to myocardial infarction, stroke or acute heart failure, and wherein the level of pro-neurotensin 1-117 in a bodily fluid is the fasting level. • determining the level of pro-neurotensin 1-117 in a bodily fluid obtained from said female subject; and • correlating said level of pro-neurotensin 1-117 with the risk of getting a cardiovascular event, wherein an elevated level is predictive of an enhanced risk of getting a cardiovascular event,
A pneumococcal vaccine comprising a fusion protein at least comprising a full-length family 1, clade 2 pneumococcal surface protein A (PspA) or a fragment thereof, and a full-length family 2 PspA or a fragment thereof, the fragments at least containing the whole of a proline-rich region and the whole or part of an α-helical region adjacent thereto, and having the capability of inducing protective immunity against pneumococcal infections in a living body, wherein the fusion protein consists of an amino acid sequence which is identical or at least 80% identical to that represented by SEQ ID NO: 1, 3 or 5.
A system for providing inerting gas to a protected space, comprising: a protected space, comprising a fuel tank ullage space, a cargo hold or an equipment bay an electrochemical cell comprising a cathode and an anode separated by a separator comprising a proton transfer medium; a power source arranged to provide a voltage differential between the anode and the cathode; a cathode fluid flow path in operative fluid communication with the cathode between a cathode fluid flow path inlet and a cathode fluid flow path outlet; an anode fluid flow path in operative fluid communication with the anode, between an anode fluid flow path inlet and an anode fluid flow path outlet; a cathode supply fluid flow path between an air source and the cathode fluid flow path inlet, and an inerting gas flow path in operative fluid communication with the cathode fluid flow path outlet and the protected space; an anode supply fluid flow path between a process water source and the anode fluid flow path inlet; a process water fluid flow path in operative fluid communication with the anode fluid flow path inlet and the anode fluid flow path outlet; and a membrane including a first side in operative fluid communication with the process water fluid flow path and a second side in operative fluid communication with a first gas outlet. a protected space, comprising a fuel tank ullage space, a cargo hold or an equipment bay an electrochemical cell comprising a cathode and an anode separated by a separator comprising a proton transfer medium; a power source arranged to provide a voltage differential between the anode and the cathode; a cathode fluid flow path in operative fluid communication with the cathode between a cathode fluid flow path inlet and a cathode fluid flow path outlet; an anode fluid flow path in operative fluid communication with the anode, between an anode fluid flow path inlet and an anode fluid flow path outlet; a cathode supply fluid flow path between an air source and the cathode fluid flow path inlet, and an inerting gas flow path in operative fluid communication with the cathode fluid flow path outlet and the protected space; an anode supply fluid flow path between a process water source and the anode fluid flow path inlet; a process water fluid flow path in operative fluid communication with the anode fluid flow path inlet and the anode fluid flow path outlet; and a membrane including a first side in operative fluid communication with the process water fluid flow path and a second side in operative fluid communication with a first gas outlet.
A method for calculating a performance of a photovoltaic module comprising at least a first photovoltaic cell and a second photovoltaic cell, the method comprising: calculating a heat flow between the first photovoltaic cell and the second photovoltaic cell using a first thermal equivalent circuit of the first photovoltaic cell and a second thermal equivalent circuit of the second photovoltaic cell, wherein at least one node of the first thermal equivalent circuit is connected to a corresponding node of the second thermal equivalent circuit by a thermal coupling resistance. calculating a heat flow between the first photovoltaic cell and the second photovoltaic cell using a first thermal equivalent circuit of the first photovoltaic cell and a second thermal equivalent circuit of the second photovoltaic cell, wherein at least one node of the first thermal equivalent circuit is connected to a corresponding node of the second thermal equivalent circuit by a thermal coupling resistance.
A light emitting device (LED, LED-1, LED-2, LED-3) comprising: a first electrode; a first stack on the first electrode; a first charge generation layer on the first stack; a second stack on the first charge generation layer; and a second electrode on the second stack, wherein the first stack comprises a first light emitting layer and a plurality of first organic layers, the second stack comprises a second light emitting layer and a plurality of second organic layers, and among the plurality of first organic layers and the plurality of second organic layers, at least one of the organic layers adjacent to each of the first light emitting layer and the second light emitting layer comprises a light emitting material, wherein: the first light emitting layer and the second light emitting layer are to generate blue light; the light emitting material is a material to generate green light, red light, and/or orange light; and characterized in that the organic layer comprising the light emitting material comprises a base substance and the light emitting material doped in the base substance. a first electrode; a first stack on the first electrode; a first charge generation layer on the first stack; a second stack on the first charge generation layer; and a second electrode on the second stack, wherein the first stack comprises a first light emitting layer and a plurality of first organic layers, the second stack comprises a second light emitting layer and a plurality of second organic layers, and among the plurality of first organic layers and the plurality of second organic layers, at least one of the organic layers adjacent to each of the first light emitting layer and the second light emitting layer comprises a light emitting material, wherein: the first light emitting layer and the second light emitting layer are to generate blue light; the light emitting material is a material to generate green light, red light, and/or orange light; and characterized in that the organic layer comprising the light emitting material comprises a base substance and the light emitting material doped in the base substance. the first light emitting layer and the second light emitting layer are to generate blue light; the light emitting material is a material to generate green light, red light, and/or orange light; and characterized in that the organic layer comprising the light emitting material comprises a base substance and the light emitting material doped in the base substance.
A process for making a cyclohexylbenzene hydroperoxide product, the process comprising: providing a first liquid mixture comprising cyclohexylbenzene and cyclohexylbenzene hydroperoxide; forming a second vapor/liquid mixture stream and a second liquid stream by passing the first liquid mixture through a first thin-film evaporation device under a first absolute pressure of at most 80 kPa; separating the second vapor/liquid mixture stream in a first separation zone under a second absolute pressure of at most 80 kPa to obtain a third liquid stream and a third vapor stream; condensing a part of the third vapor stream to obtain a fourth liquid stream and a fourth vapor stream; recycling at least a part of the fourth liquid stream to the first thin-film evaporation device; and obtaining the cyclohexylbenzene hydroperoxide product from the third liquid stream and/or the second liquid stream, wherein the cyclohexylbenzene hydroperoxide product has a higher concentration of cyclohexylbenzene hydroperoxide compared to the first liquid mixture, and wherein part of the second liquid stream and part of the third liquid stream are recycled to the first evaporation device. providing a first liquid mixture comprising cyclohexylbenzene and cyclohexylbenzene hydroperoxide; forming a second vapor/liquid mixture stream and a second liquid stream by passing the first liquid mixture through a first thin-film evaporation device under a first absolute pressure of at most 80 kPa; separating the second vapor/liquid mixture stream in a first separation zone under a second absolute pressure of at most 80 kPa to obtain a third liquid stream and a third vapor stream; condensing a part of the third vapor stream to obtain a fourth liquid stream and a fourth vapor stream; recycling at least a part of the fourth liquid stream to the first thin-film evaporation device; and obtaining the cyclohexylbenzene hydroperoxide product from the third liquid stream and/or the second liquid stream, wherein the cyclohexylbenzene hydroperoxide product has a higher concentration of cyclohexylbenzene hydroperoxide compared to the first liquid mixture, and wherein part of the second liquid stream and part of the third liquid stream are recycled to the first evaporation device.
A method of manufacturing artificial marble, comprising: preparing uncured resin sheets or blocks using at least two different types of resin compositions providing different aesthetic effects, respectively; kneading the resin sheets or blocks and forming the kneaded product into an uncured marble resin sheet or resin block; and pressing the marble resin sheet or resin block. preparing uncured resin sheets or blocks using at least two different types of resin compositions providing different aesthetic effects, respectively; kneading the resin sheets or blocks and forming the kneaded product into an uncured marble resin sheet or resin block; and pressing the marble resin sheet or resin block.
An image handling apparatus comprising an operation panel configured to display an input screen (311; 601, 602) allowing to input image handle information for handling an image based on display control information received from an external apparatus capable of connecting through a network, and receiving an instruction of an image generation; and hardware resources including at least a scanner configured to scan a document and generate an image; the image handling apparatus is configured to transfer the image handle information inputted at the input screen (311; 601, 602) to the external apparatus; and the image handling apparatus includes an image generation controlling part receiving and parsing image generation information for the scanner to execute an image generation based on the image handle information, from the external apparatus in response to the instruction of an image generation, so that the scanner executes the image generation, the image handling apparatus is configured to receive the image generation information which comprises format data that includes an area in which the image generated by the scanner is to be stored, and cause the scanner to scan the document; characterized in that: the image obtained by the scan is embedded within the area in the image generation information and the format data embedding the image is transferred from the image handling apparatus to an image processing application of another computer which is different from the external apparatus. the image obtained by the scan is embedded within the area in the image generation information and the format data embedding the image is transferred from the image handling apparatus to an image processing application of another computer which is different from the external apparatus.
(Original) A drive receiving member for transferring rotational driving force from an image forming apparatus to components of an imaging cartridge, the member comprising: a central portion defining an axis; a plane extending through the central portion substantially perpendicular to the axis; and a distal end for receiving rotational driving force, the distal end including at least one substantially rigid drive lug defining a drive-receiving surface and including a drive lug end positioned a first axial distance from the plane, and at least one resilient catch member including a catch member end positioned a second axial distance from the plane, wherein the second axial distance is greater than the first axial distance. a central portion defining an axis; a plane extending through the central portion substantially perpendicular to the axis; and a distal end for receiving rotational driving force, the distal end including at least one substantially rigid drive lug defining a drive-receiving surface and including a drive lug end positioned a first axial distance from the plane, and at least one resilient catch member including a catch member end positioned a second axial distance from the plane, wherein the second axial distance is greater than the first axial distance.