mhurhangee/ep-ind-claims huggingface dataset:
Method for producing hollow bodies from thermoplastic material, comprising the molding of at least two sheet-like, web-shaped preforms of plasticated thermoplastic material in a multi-part tool forming a cavity to form two complementary shells, and also the joining together of the shells to form a substantially closed hollow body, wherein the preforms are brought between open parts of the tool which each have part-cavities, the parts of the tool are then closed against a tool separator arranged between the preforms, and the preforms are inserted into the part-cavities with the use of differential pressure and molded, in a further separate method step the tools are reopened and internal components of the hollow body to be produced are fastened to the shells, and finally the shells are joined together by reclosing the tools to form a closed hollow body, characterized in that the internal components are fastened to the shells by means of at least one component carrier which can be brought between the open parts of the tool and that the internal components are fastened to the shells using a closing movement of the tools.
A foam formulation comprising: a polyol composition including: a high functionality polyether polyol having average hydroxyl functionality greater than 5.0, that is from 20 to 60 weight percent of a total weight of the polyol composition; an aromatic polyether polyol that is from 5 to 15 weight percent of the total weight of the polyol composition; an amine initiated aliphatic polyether polyol that is from 3 to 10 weight percent of the total weight of the polyol composition; a diol that is from 20 to 60 weight percent of the total weight of the polyol composition, wherein the polyol composition has an average hydroxyl functionality from 3.7 to 6.0; and an isocyanate, wherein the foam formulation forms a foam having a molecular weight per cross-link from 475 to 520. a high functionality polyether polyol having average hydroxyl functionality greater than 5.0, that is from 20 to 60 weight percent of a total weight of the polyol composition; an aromatic polyether polyol that is from 5 to 15 weight percent of the total weight of the polyol composition; an amine initiated aliphatic polyether polyol that is from 3 to 10 weight percent of the total weight of the polyol composition; a diol that is from 20 to 60 weight percent of the total weight of the polyol composition, wherein the polyol composition has an average hydroxyl functionality from 3.7 to 6.0; and an isocyanate, wherein the foam formulation forms a foam having a molecular weight per cross-link from 475 to 520.
A process for operating a call routing controller to facilitate communication between callers and callees ( 12, 15) in a system comprising a plurality of nodes with which callers and callees ( 12, 15) are associated, the process comprising: in response to initiation of a call by a calling subscriber on an IP network, receiving a caller identifier and a callee identifier; using call classification criteria associated with the caller identifier to classify the call as a public network call or a private network call by: searching a database to locate a record identifying calling attributes associated with a caller identified by said caller identifier; comparing at least one calling attribute associated with a caller dialing profile with aspects of said callee identifier; and classifying the call based on said comparing as a public network call when public network classification criteria are met and classifying the call based on said comparing as a private network call when private network classification criteria are met; producing a routing message identifying an IP address of a network element, on a private network, associated with the callee when the call is classified as a private network call; and producing a routing message identifying an IP address of a gateway to a public network when the call is classified as a public network call. in response to initiation of a call by a calling subscriber on an IP network, receiving a caller identifier and a callee identifier; using call classification criteria associated with the caller identifier to classify the call as a public network call or a private network call by: searching a database to locate a record identifying calling attributes associated with a caller identified by said caller identifier; comparing at least one calling attribute associated with a caller dialing profile with aspects of said callee identifier; and classifying the call based on said comparing as a public network call when public network classification criteria are met and classifying the call based on said comparing as a private network call when private network classification criteria are met; searching a database to locate a record identifying calling attributes associated with a caller identified by said caller identifier; comparing at least one calling attribute associated with a caller dialing profile with aspects of said callee identifier; and classifying the call based on said comparing as a public network call when public network classification criteria are met and classifying the call based on said comparing as a private network call when private network classification criteria are met; producing a routing message identifying an IP address of a network element, on a private network, associated with the callee when the call is classified as a private network call; and producing a routing message identifying an IP address of a gateway to a public network when the call is classified as a public network call.
A method for joining components, the method comprising: exposing a first substrate to a first plasma such that an amine-functionalized substrate is formed, wherein the amine-functionalized substrate comprises amine chemical moieties disposed on a first surface of the first substrate; exposing the first substrate to a second plasma, such that the first substrate comprises epoxy chemical moieties (710, 720, 730, 740) disposed on the first surface of the first substrate; positioning the first surface of the first substrate adjacent to a second surface of a second substrate (140, 300) to form a workpiece such that the first surface contacts the second surface; heating (750, 1130) the workpiece to form a heated workpiece; and cooling the heated workpiece to form a structure. exposing a first substrate to a first plasma such that an amine-functionalized substrate is formed, wherein the amine-functionalized substrate comprises amine chemical moieties disposed on a first surface of the first substrate; exposing the first substrate to a second plasma, such that the first substrate comprises epoxy chemical moieties (710, 720, 730, 740) disposed on the first surface of the first substrate; positioning the first surface of the first substrate adjacent to a second surface of a second substrate (140, 300) to form a workpiece such that the first surface contacts the second surface; heating (750, 1130) the workpiece to form a heated workpiece; and cooling the heated workpiece to form a structure.
A system, comprising: an imaging device configured to image a first three-dimensional printed object; and a processor coupled to the imaging device and configured to: receive information generated as a result of imaging the first 3D printed object with the imaging device; identify a first set of features for the first 3D printed object using the received information; compare the first set of features with multiple reference sets of features, each of the multiple reference sets of features being associated with a respective 3D object in a first plurality of 3D objects; identify, based at least in part on results of the comparison, a 3D object from the first plurality of 3D objects that matches the first 3D printed object; and determine whether the first 3D printed object is defective based on comparing the information generated as a result of imaging the first 3D printed object with the imaging device and a model of the identified 3D object from the first plurality of 3D objects that matches the first 3D printed object. an imaging device configured to image a first three-dimensional printed object; and a processor coupled to the imaging device and configured to: receive information generated as a result of imaging the first 3D printed object with the imaging device; identify a first set of features for the first 3D printed object using the received information; compare the first set of features with multiple reference sets of features, each of the multiple reference sets of features being associated with a respective 3D object in a first plurality of 3D objects; identify, based at least in part on results of the comparison, a 3D object from the first plurality of 3D objects that matches the first 3D printed object; and determine whether the first 3D printed object is defective based on comparing the information generated as a result of imaging the first 3D printed object with the imaging device and a model of the identified 3D object from the first plurality of 3D objects that matches the first 3D printed object. receive information generated as a result of imaging the first 3D printed object with the imaging device; identify a first set of features for the first 3D printed object using the received information; compare the first set of features with multiple reference sets of features, each of the multiple reference sets of features being associated with a respective 3D object in a first plurality of 3D objects; identify, based at least in part on results of the comparison, a 3D object from the first plurality of 3D objects that matches the first 3D printed object; and determine whether the first 3D printed object is defective based on comparing the information generated as a result of imaging the first 3D printed object with the imaging device and a model of the identified 3D object from the first plurality of 3D objects that matches the first 3D printed object.
An antibody agent specific to Dengue virus, wherein the antibody agent binds to and neutralizes each of Dengue virus serotypes D1, D2,D3 and D4, which antibody agent comprises a heavy chain variable region and a light chain variable region, wherein the heavy chain framework region 1, framework region 2, framework region 3, and framework region 4 have more than 90% identity with SEQ ID NO: 3, SEQ ID NO: 4;SEQ ID NO: 5 and SEQ ID NO: 6, respectively and the light chain FR1, FR2, FR3 and FR4 have more than 90% sequence identity with SEQ ID NO:10; SEQ ID NO:11; SEQ ID NO:12 and SEQ ID NO:13 respectively, wherein the heavy chain variable region comprises a CDR1, a CDR2 and a CDR3 whose amino acid sequences are set forth in SEQ ID NO.: 23, SEQ ID NO.: 24, SEQ ID NO.: 25, respectively and the light chain variable region comprises a CDR1, a CDR2 and a CDR3 whose amino acid sequences are set forth in SEQ ID NO.: 26, SEQ ID NO.: 27 and SEQ ID NO.: 28, respectively..
A method for mixing a high-viscosity material with a gas, using a piston pump in which a piston is reciprocally moved in a cylinder to thereby effect suction and discharge, said method comprising: a step of effecting a first suction stroke in which the piston is moved in the cylinder so as to generate a suction condition in the cylinder; a step of supplying a high-viscosity material to the cylinder, using a suction force in the cylinder generated in said first suction stroke; a step of effecting a second suction stroke in which the piston is moved in the cylinder after the supply of the high-viscosity material; a step of supplying a gas to the cylinder, using a suction force in the cylinder generated in the second suction stroke; a step of effecting a pressurizing stroke in which the piston is moved in the cylinder after completion of the supply of the gas, to thereby pressurize the high-viscosity material and the gas; and a step of effecting a discharge stroke in which the piston is moved in the cylinder after the pressurizing stroke, to thereby discharge the high-viscosity material and the gas into a conduit; characterised by a step of stopping the piston after said first suction stroke before said second suction stroke. a step of effecting a first suction stroke in which the piston is moved in the cylinder so as to generate a suction condition in the cylinder; a step of supplying a high-viscosity material to the cylinder, using a suction force in the cylinder generated in said first suction stroke; a step of effecting a second suction stroke in which the piston is moved in the cylinder after the supply of the high-viscosity material; a step of supplying a gas to the cylinder, using a suction force in the cylinder generated in the second suction stroke; a step of effecting a pressurizing stroke in which the piston is moved in the cylinder after completion of the supply of the gas, to thereby pressurize the high-viscosity material and the gas; and a step of effecting a discharge stroke in which the piston is moved in the cylinder after the pressurizing stroke, to thereby discharge the high-viscosity material and the gas into a conduit; characterised by a step of stopping the piston after said first suction stroke before said second suction stroke.
A display panel, comprising: a base substrate; a device to be encapsulated on the base substrate; an encapsulation film on the base substrate, the encapsulation film covering the device to be encapsulated; an edge encapsulation member on an edge of the encapsulation film, the edge encapsulation member being configured to cover the edge of the encapsulation film, wherein the encapsulation film comprises a first film, a second film and a third film which are sequentially away from the base substrate, the second film is interposed between the first film and the third film, and the first film is in contact with the third film at an edge location to form a stacked-contact portion, and at least the stacked-contact portion including the first film and the third film is covered by the edge encapsulation member, wherein the edge encapsulation member is located at a periphery of the device to be encapsulated; and a first dam and a second dam, wherein the first dam and the second dam are configured to increase an effective length of the stacked-contact portion, the second dam is apart from the first dam, and at least a part of the second dam is formed in the same layer as the first dam, characterized in that the stacked-contact portion covers both the first dam and the second dam, and the edge encapsulation member covers both the first dam and the second dam. a base substrate; a device to be encapsulated on the base substrate; an encapsulation film on the base substrate, the encapsulation film covering the device to be encapsulated; an edge encapsulation member on an edge of the encapsulation film, the edge encapsulation member being configured to cover the edge of the encapsulation film, wherein the encapsulation film comprises a first film, a second film and a third film which are sequentially away from the base substrate, the second film is interposed between the first film and the third film, and the first film is in contact with the third film at an edge location to form a stacked-contact portion, and at least the stacked-contact portion including the first film and the third film is covered by the edge encapsulation member, wherein the edge encapsulation member is located at a periphery of the device to be encapsulated; and a first dam and a second dam, wherein the first dam and the second dam are configured to increase an effective length of the stacked-contact portion, the second dam is apart from the first dam, and at least a part of the second dam is formed in the same layer as the first dam, characterized in that the stacked-contact portion covers both the first dam and the second dam, and the edge encapsulation member covers both the first dam and the second dam.
A terminal device, comprising: a screen bendable along a preset shaft; and a microphone comprising: a housing including a cavity with an open end; a flexible circuit board, connected to the housing to block the open end of the cavity; and a signal converter, configured to convert a sound signal into an electrical signal, disposed in the cavity, and connected to the flexible circuit board, characterized in that, the flexible circuit board comprises a supporting portion and a connecting portion, and the supporting portion and a free end of the connecting portion are respectively disposed on two sides of the screen with respect to the preset shaft; the supporting portion is connected to the housing and the signal converter; and the connecting portion extends from a side of the supporting portion, and the free end of the connecting portion is away from the supporting portion. a screen bendable along a preset shaft; and a microphone comprising: a housing including a cavity with an open end; a flexible circuit board, connected to the housing to block the open end of the cavity; and a signal converter, configured to convert a sound signal into an electrical signal, disposed in the cavity, and connected to the flexible circuit board, a housing including a cavity with an open end; a flexible circuit board, connected to the housing to block the open end of the cavity; and a signal converter, configured to convert a sound signal into an electrical signal, disposed in the cavity, and connected to the flexible circuit board, characterized in that, the flexible circuit board comprises a supporting portion and a connecting portion, and the supporting portion and a free end of the connecting portion are respectively disposed on two sides of the screen with respect to the preset shaft; the supporting portion is connected to the housing and the signal converter; and the connecting portion extends from a side of the supporting portion, and the free end of the connecting portion is away from the supporting portion.
A method for operating an engine in an intermittent combustion mode in such a manner that a fired cylinder ratio of an engine, which corresponds to the number of fired cylinders during a cycle, divided by a sum of the number of fired cylinders and a number of skipped cylinders during the cycle, becomes equal to a target fired cylinder ratio greater than or less than 1/2, by repeating an intermittent firing pattern in which n cylinders are successively fired and then m cylinders are successively skipped, where n and m are variables of natural numbers, the fired cylinder ratio being set based on an operating state of the engine, the method comprising: operating the engine in the intermittent combustion mode, which is executed by repeating switching of the intermittent firing pattern, in such a manner that the intermittent firing pattern is switched a predetermined number of times from the first intermittent firing pattern and back to the first intermittent firing pattern, within the one cycle defined as a period in which the intermittent firing pattern is switched the predetermined number of times, one of n and m is maintained at a value equal to its respective value before switching the intermittent firing pattern, the other one of n and m not maintained at its respective value is changed by only 1 from its respective value before switching the intermittent firing pattern the fired cylinder ratio after one cycle of switching of the intermittent firing pattern equals the target fired cylinder ratio. operating the engine in the intermittent combustion mode, which is executed by repeating switching of the intermittent firing pattern, in such a manner that the intermittent firing pattern is switched a predetermined number of times from the first intermittent firing pattern and back to the first intermittent firing pattern, within the one cycle defined as a period in which the intermittent firing pattern is switched the predetermined number of times, one of n and m is maintained at a value equal to its respective value before switching the intermittent firing pattern, the other one of n and m not maintained at its respective value is changed by only 1 from its respective value before switching the intermittent firing pattern the fired cylinder ratio after one cycle of switching of the intermittent firing pattern equals the target fired cylinder ratio. one of n and m is maintained at a value equal to its respective value before switching the intermittent firing pattern, the other one of n and m not maintained at its respective value is changed by only 1 from its respective value before switching the intermittent firing pattern the fired cylinder ratio after one cycle of switching of the intermittent firing pattern equals the target fired cylinder ratio.
A personal basic service point / access point, PCP/AP, communication device, comprising: a frame generating circuit (101, 102, 103) configured to generate a Directional Multi-Gigabit, DMG, Beacon frame including a Sector Sweep, SSW, field, the SSW field comprising a differential gain subfield for indicating a difference value obtained by subtracting a reception antenna gain in Association Beamforming Training, A-BFT, of the PCP/AP communication device from a value of Transmission Equivalent Isotropic Radiated Power, TX EIRP, the DMG Beacon frame transmission of the PCP/AP communication device; and a transmission circuit (104, 106) configured to transmit the DMG Beacon frame in a Beacon Transmission Interval, BTI. a frame generating circuit (101, 102, 103) configured to generate a Directional Multi-Gigabit, DMG, Beacon frame including a Sector Sweep, SSW, field, the SSW field comprising a differential gain subfield for indicating a difference value obtained by subtracting a reception antenna gain in Association Beamforming Training, A-BFT, of the PCP/AP communication device from a value of Transmission Equivalent Isotropic Radiated Power, TX EIRP, the DMG Beacon frame transmission of the PCP/AP communication device; and a transmission circuit (104, 106) configured to transmit the DMG Beacon frame in a Beacon Transmission Interval, BTI.