mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a flat article in sandwich lightweight construction design with at least two covering layers (3, 4) and a core arranged between two of the covering layers (3, 4), comprising the following process steps: a) Using the materials expandable polypropylene, expandable polystyrene or expandable polyethylene as the core, b) Using one or more thermoplastic materials as the covering layer (3, 4), c) Preheating the covering layers (3, 4) until reaching the thermoplastic condition, d) Applying the heated covering layers (3, 4) on one forming tool (6 or 7) each, e) Forming the covering layers (3, 4) using the two forming tools (6, 7) and injecting the core in such a way as to generate a negative pressure at least on one of the covering layers (3, 4) by means of a vacuum device, in which case the negative pressure acts on the core between the two adjacent covering layers (3, 4) and makes it possible to influence the extension and the distribution of the volume parts which make up the core, f) Heating the covering layers (3, 4) and the core for bonding the core and the covering layers (3, 4) with the core, g) Cooling the formed flat article in the forming tools (6, 7), h) Removing the flat article from the forming tools (6, 7). a) Using the materials expandable polypropylene, expandable polystyrene or expandable polyethylene as the core, b) Using one or more thermoplastic materials as the covering layer (3, 4), c) Preheating the covering layers (3, 4) until reaching the thermoplastic condition, d) Applying the heated covering layers (3, 4) on one forming tool (6 or 7) each, e) Forming the covering layers (3, 4) using the two forming tools (6, 7) and injecting the core in such a way as to generate a negative pressure at least on one of the covering layers (3, 4) by means of a vacuum device, in which case the negative pressure acts on the core between the two adjacent covering layers (3, 4) and makes it possible to influence the extension and the distribution of the volume parts which make up the core, f) Heating the covering layers (3, 4) and the core for bonding the core and the covering layers (3, 4) with the core, g) Cooling the formed flat article in the forming tools (6, 7), h) Removing the flat article from the forming tools (6, 7).
A propylene-based polymer composition comprising a reactor blend of a first polymer component and a second polymer component, wherein the first polymer component comprises propylene and ethylene and has an ethylene content R 1 of from greater than 12 to less than 19 wt% ethylene, where the percentage by weight is based upon the total weight of the propylene-derived and ethylene-derived units of the first polymer component, wherein the second polymer component comprises propylene and ethylene and has an ethylene content R 2 of from greater than 4 to less than 10 wt% ethylene, where the percentage by weight is based upon the total weight of the propylene-derived and ethylene-derived units of the second polymer component, and wherein the ethylene content of the first and second polymer components satisfy the formula: − 1.7143 R 1 + 29.771 ≤ R 2 ≤ − 1.9167 R 1 + 37.25, preferably, − 1.7143 R 1 + 30 ≤ R 2 ≤ − 1.9167 R 1 + 37, more preferably, − 1.7143 R 1 + 31 ≤ R 2 ≤ − 1.9167 R 1 + 36. wherein the first polymer component comprises propylene and ethylene and has an ethylene content R 1 of from greater than 12 to less than 19 wt% ethylene, where the percentage by weight is based upon the total weight of the propylene-derived and ethylene-derived units of the first polymer component, wherein the second polymer component comprises propylene and ethylene and has an ethylene content R 2 of from greater than 4 to less than 10 wt% ethylene, where the percentage by weight is based upon the total weight of the propylene-derived and ethylene-derived units of the second polymer component, and wherein the ethylene content of the first and second polymer components satisfy the formula: − 1.7143 R 1 + 29.771 ≤ R 2 ≤ − 1.9167 R 1 + 37.25, preferably, − 1.7143 R 1 + 30 ≤ R 2 ≤ − 1.9167 R 1 + 37, more preferably, − 1.7143 R 1 + 31 ≤ R 2 ≤ − 1.9167 R 1 + 36.
A device for measuring an unknown resistance (R X), comprising a reference resistance (R REF) in series with said unknown resistance (R x), said device being prearranged for measuring a first voltage and a second voltage, across said reference resistance (R REF) and said unknown resistance (R X), respectively, said device comprising changeover-switch modules (muxA, muxB), which receive at input said first voltage and said second voltage, and return values (D1, D2) representing said first voltage and said second voltage, and a single analog-to-digital converter, which supplies at output the digital representation (D X) of the value of the unknown resistance (R X) as ratio between the return values (D1, D2) at input to the converter, the device characterized in that said single analog-to-digital converter contains two negative feedback loops (D2, D1), which function in an alternative way according to the outputs of said changeover-switch modules (muxA, muxB).
A system comprising a component supply tape made from carrier tape that is configured to store components respectively in many component storage sections formed in a lengthwise direction of the tape and cover tape attached to a specified attachment surface on an upper surface of the carrier tape that is configured to prevent the components from falling from the component storage sections, wherein the component supply tape comprises a distance between a vertical leading end surface of the carrier tape and the first component storage section; and a feeder device comprising a tape feeding mechanism (3, 4) configured to feed the component supply tape, and a tape peeling mechanism provided with a peeling member configured to enter the vertical leading end surface in a feeding direction of the fed component supply tape so as to peel the cover tape from the carrier tape as the component supply tape is fed thereby enabling the component to be supplied from the component storage section of the carrier tape at a component supply position, characterized in that the peeling member has a leading end section configured to enter the vertical leading end surface of the carrier tape first, the leading end section being formed including a leading end upper edge configured to be arranged lower than an upper surface height of the carrier tape when getting into contact with the vertical leading end surface and a lower surface configured to lower heading rearwards from the leading end upper edge, the lower surface being rounded off at a position close to the leading end upper edge and being connected to a lower surface that is parallel to the component supply tape, said lower surface of the leading end section has a length in the feeding direction, and the length in the feeding direction of the lower surface of the leading end section of the peeling member is shorter than the distance between the vertical leading end surface of the carrier tape and the first component storage section, such that the peeling member is displaced upwards after entering the vertical leading end surface of the carrier tape as the component supply tape is fed. a tape feeding mechanism (3, 4) configured to feed the component supply tape, and a tape peeling mechanism provided with a peeling member configured to enter the vertical leading end surface in a feeding direction of the fed component supply tape so as to peel the cover tape from the carrier tape as the component supply tape is fed thereby enabling the component to be supplied from the component storage section of the carrier tape at a component supply position,
A data processing method, applied to a receiver, comprising: determining whether a current radio bearer is an only radio bearer corresponding to a service data adaptation protocol, SDAP, entity of the receiver; releasing the SDAP entity in case that the current radio bearer is the only radio bearer corresponding to the SDAP entity; releasing a configuration corresponding to the current radio bearer in case that the current radio bearer is not the only radio bearer corresponding to the SDAP entity; wherein the method further comprises: receiving a radio bearer release indication or a packet data convergence protocol, PDCP, entity release indication from a higher layer prior to the determining whether the current radio bearer is the only radio bearer corresponding to the SDAP entity of the receiver. determining whether a current radio bearer is an only radio bearer corresponding to a service data adaptation protocol, SDAP, entity of the receiver; releasing the SDAP entity in case that the current radio bearer is the only radio bearer corresponding to the SDAP entity; releasing a configuration corresponding to the current radio bearer in case that the current radio bearer is not the only radio bearer corresponding to the SDAP entity; wherein the method further comprises: receiving a radio bearer release indication or a packet data convergence protocol, PDCP, entity release indication from a higher layer prior to the determining whether the current radio bearer is the only radio bearer corresponding to the SDAP entity of the receiver.
A mounting assembly for a muffler of an off-road vehicle, comprising: a first mounting pad rotatably coupled to a first support, wherein the first mounting pad is configured to rotate in a first direction and in a second direction, opposite the first direction, about a first rotation axis; and a second mounting pad rotatably coupled to a second support, wherein the second mounting pad is configured to rotate in the first direction and in the second direction about a second rotation axis; characterized in that the first and second mounting pads (51, 67) are configured to be laterally offset from one another relative to a longitudinal axis of the muffler, the first and second mounting pads (51, 67) are configured to support the muffler, and the first and second mounting pads (51, 67) are configured to independently rotate relative to the respective supports (56, 74) about the respective rotation axes (60, 76) and said rotation axes (60, 76) are configured to be parallel to said longitudinal axis of the muffler. a first mounting pad rotatably coupled to a first support, wherein the first mounting pad is configured to rotate in a first direction and in a second direction, opposite the first direction, about a first rotation axis; and a second mounting pad rotatably coupled to a second support, wherein the second mounting pad is configured to rotate in the first direction and in the second direction about a second rotation axis; characterized in that the first and second mounting pads (51, 67) are configured to be laterally offset from one another relative to a longitudinal axis of the muffler, the first and second mounting pads (51, 67) are configured to support the muffler, and the first and second mounting pads (51, 67) are configured to independently rotate relative to the respective supports (56, 74) about the respective rotation axes (60, 76) and said rotation axes (60, 76) are configured to be parallel to said longitudinal axis of the muffler.
A sheet preparation system, comprising: an input path configured to receive a sheet from an image forming device; a manipulation paper path, wherein a sheet to be manipulated is diverted to the manipulation paper path; a hole forming device configured to controllably create at least one hole in the received sheet, a perforating device configured to controllably create at least one perforation in the received sheet, and a folding subsystem configured to controllably fold the received sheet to create at least one fold in the received sheet; and at least one output path configured to output the received sheet from the sheet preparation system, characterized in that the folding subsystem comprises a first folding device and a second folding device, wherein each of the first and second folding devices comprises: a set of folding rollers (446, 448); a set of servo rollers that is controllable to reverse a direction of the received sheet at a selectable location that determines a location of a fold to be formed in the received sheet by the set of folding rollers (446, 448), wherein the manipulation paper path includes the hole forming device, the perforating device and the folding subsystem in the cited order in the downstream direction of the manipulation paper path. an input path configured to receive a sheet from an image forming device; a manipulation paper path, wherein a sheet to be manipulated is diverted to the manipulation paper path; a hole forming device configured to controllably create at least one hole in the received sheet, a perforating device configured to controllably create at least one perforation in the received sheet, and a folding subsystem configured to controllably fold the received sheet to create at least one fold in the received sheet; and at least one output path configured to output the received sheet from the sheet preparation system, wherein each of the first and second folding devices comprises: a set of folding rollers (446, 448); a set of servo rollers that is controllable to reverse a direction of the received sheet at a selectable location that determines a location of a fold to be formed in the received sheet by the set of folding rollers (446, 448), wherein the manipulation paper path includes the hole forming device, the perforating device and the folding subsystem in the cited order in the downstream direction of the manipulation paper path. a set of folding rollers (446, 448); a set of servo rollers that is controllable to reverse a direction of the received sheet at a selectable location that determines a location of a fold to be formed in the received sheet by the set of folding rollers (446, 448), wherein the manipulation paper path includes the hole forming device, the perforating device and the folding subsystem in the cited order in the downstream direction of the manipulation paper path.
A method of establishing secure communications between a first wireless communication device and a second wireless communication device for an instant messaging application the first and second devices having a default encryption scheme, the method comprising: Receiving, at the first wireless communication device, contact information representing a contact associated with the second wireless communication device, the contact information including capability information; Determining from the capability information whether the second wireless communication device is capable of communicating using an enhanced encryption scheme; responsive to determining that the second wireless communication device is capable of communicating using an enhanced encryption scheme, establishing a protected communication session by: sending a pass phrase to the second wireless communication device via an out of band channel; receiving the pass phrase back from the second wireless communication device via the instant messaging application; and communicating with the second wireless communication device using the enhanced encryption scheme, and responsive to determining that the second wireless communication device is incapable of communicating using the enhanced encryption scheme, communicating with the second wireless communication device using the default encryption scheme. Receiving, at the first wireless communication device, contact information representing a contact associated with the second wireless communication device, the contact information including capability information; Determining from the capability information whether the second wireless communication device is capable of communicating using an enhanced encryption scheme; responsive to determining that the second wireless communication device is capable of communicating using an enhanced encryption scheme, establishing a protected communication session by: sending a pass phrase to the second wireless communication device via an out of band channel; receiving the pass phrase back from the second wireless communication device via the instant messaging application; and communicating with the second wireless communication device using the enhanced encryption scheme, and sending a pass phrase to the second wireless communication device via an out of band channel; receiving the pass phrase back from the second wireless communication device via the instant messaging application; and communicating with the second wireless communication device using the enhanced encryption scheme, and responsive to determining that the second wireless communication device is incapable of communicating using the enhanced encryption scheme, communicating with the second wireless communication device using the default encryption scheme.
Conveyor apparatus for upwardly directed, in particular vertical, conveying of beets or other root crops in harvesting machines, comprising a conveyor belt having at least two lateral conveyor belt portions which are moved in a conveying direction during operation and define therebetween an in particular planar virtual conveyor belt surface, characterized by at least one carrier unit protruding from the virtual conveyor belt surface on one side and supported on the conveyor belt, which carrier unit delimits a receiving space extending on both sides of the virtual conveyor belt surface, wherein the part of the receiving space which is arranged on the side of the virtual conveyor surface opposite the carrier unit is formed by at least one releasably fastened pocket module having two pocket pull elements which are arranged in parallel and are connected to one another by at least one wall element, which is in particular metal or made of plastics material, wherein the pocket module has a plurality of wall elements which are formed as in particular equidistant struts extending transversely to the conveying direction, wherein the pocket module is releasably fastened in such a way that it does not intersect the conveyor belt surface and is releasable from the conveyor belt in a direction away from the conveyor belt surface during dismantling, wherein the conveyor belt portions define the virtual conveyor belt surface insofar as the virtual conveyor belt surface extends in a straight line through both conveyor belt portions at least transversely to the conveying direction.
Method for optimising the routing of a data packet in a telecommunications network, wherein a transmitting device and a receiving device (3, 3' 3", 3''') are connected to the telecommunications network, wherein the telecommunications network comprises a plurality of subnetworks (100, 110, 111, 112, 120, 121, 200, 210), wherein in a first method step, the data packet is transmitted by the transmitting device to the telecommunications network, wherein in a second method step, the data packet has added to it network identification information for identification of a target network by the telecommunications network, wherein the target network is a subnetwork of the plurality of subnetworks (100, 110, 111, 112, 120, 121, 200, 210) of the telecommunications network, which subnetwork is associated with the receiving device (3, 3' 3'', 3'''), wherein in a third method step, in dependence upon the network identification information, dedicated routing of the data packet within the target network is carried out by the telecommunications network, wherein in the third method step, in dependence upon the network identification information, while the dedicated routing is being carried out, the data packet is forwarded exclusively within the target network to the receiving device (3, 3' 3'', 3'''), wherein in particular the target network is a subnetwork (100, 110, 111) of the plurality of subnetworks (100, 110, 111, 112, 120, 121, 200, 210), which subnetwork is associated with the transmitting device.
A method for utilizing an automated chat system to prevent interactions being routed to a particular agent device of a contact center based on interaction with the automated chat system, the method comprising: selecting, by a processor, a topic for interacting with a human agent at an agent device of the contact center; identifying, by the processor, a dialog tree associated with the selected topic, wherein the dialog tree is associated with a correct path; and engaging, by the processor, in an automated communication session with the human agent based on the identified dialog tree, wherein the engaging of the automated communication session includes: receiving, by the processor, an input from the human agent; identifying, by the processor, a current node of the dialog tree associated with the input; selecting, by the processor, an automated phrase to be output in response to identifying the current node; and outputting, by the processor, the automated phrase; determining whether the input follows or deviates from the path identified by the dialog tree; transitioning to the next node of the dialog tree if the input follows the path identified by the dialog tree and triggering an action if the input deviates from the path identified by the dialog tree, wherein the action prevents further interactions being routed to the agent device. selecting, by a processor, a topic for interacting with a human agent at an agent device of the contact center; identifying, by the processor, a dialog tree associated with the selected topic, wherein the dialog tree is associated with a correct path; and engaging, by the processor, in an automated communication session with the human agent based on the identified dialog tree, wherein the engaging of the automated communication session includes: receiving, by the processor, an input from the human agent; identifying, by the processor, a current node of the dialog tree associated with the input; selecting, by the processor, an automated phrase to be output in response to identifying the current node; and outputting, by the processor, the automated phrase; receiving, by the processor, an input from the human agent; identifying, by the processor, a current node of the dialog tree associated with the input; selecting, by the processor, an automated phrase to be output in response to identifying the current node; and outputting, by the processor, the automated phrase; determining whether the input follows or deviates from the path identified by the dialog tree; transitioning to the next node of the dialog tree if the input follows the path identified by the dialog tree and triggering an action if the input deviates from the path identified by the dialog tree, wherein the action prevents further interactions being routed to the agent device.