mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by one or more computers, the method comprising: receiving a request for validation of an analytics process configured to execute on a distributed computing system comprising a plurality of physical computers; receiving a raw subset of a dataset ; processing the raw subset of the dataset to generate a first output subset , including executing a test script specifying an expression of the analytics process and supplying the raw subset as an input to the test script; receiving, from the distributed computing system that is executing the analytics process on the dataset, a second output subset that is a portion of an output of the analytics process executing on the distributed computing system , the second output subset resulting from the distributed computing system processing the raw subset, and wherein receiving the second output subset comprises polling the distributed computing system that is executing the analytics process on the dataset using an asynchronous callback function implemented using a representational state transfer application program interface, further referred to as RESTful API, comprising polling the distributed computing system that is executing the analytics process on the dataset in parallel with processing the raw subset; comparing the first output subset to the second output subset ; and outputting, prior to the distributed computing system completing execution of the analytics process on the whole dataset, a validation result based on comparing the first output subset to the second output subset . receiving a request for validation of an analytics process configured to execute on a distributed computing system comprising a plurality of physical computers; receiving a raw subset of a dataset ; processing the raw subset of the dataset to generate a first output subset , including executing a test script specifying an expression of the analytics process and supplying the raw subset as an input to the test script; receiving, from the distributed computing system that is executing the analytics process on the dataset, a second output subset that is a portion of an output of the analytics process executing on the distributed computing system , the second output subset resulting from the distributed computing system processing the raw subset, and wherein receiving the second output subset comprises polling the distributed computing system that is executing the analytics process on the dataset using an asynchronous callback function implemented using a representational state transfer application program interface, further referred to as RESTful API, comprising polling the distributed computing system that is executing the analytics process on the dataset in parallel with processing the raw subset; comparing the first output subset to the second output subset ; and outputting, prior to the distributed computing system completing execution of the analytics process on the whole dataset, a validation result based on comparing the first output subset to the second output subset .
Coating composition containing A) at least one polyol component, B) at least one crosslinker component having free and/or blocked isocyanate groups which is obtained by reaction of at least one polyisocyanate with at least one amino-functional alkoxysilane, optionally C) at least one catalyst for the crosslinking of silane groups, and D) optionally further auxiliaries and additives, characterized in that the polyol component A) comprises at least one polyester polyol A1) prepared using a 2,2,4,4-tetraalkylcyclobutane-1,3-diol (TACD) of the general formula (I) in which the radicals R 1 , R 2 , R 3 and R 4 are independently linear or branched alkyl radicals having up to 8 carbon atoms. A) at least one polyol component, B) at least one crosslinker component having free and/or blocked isocyanate groups which is obtained by reaction of at least one polyisocyanate with at least one amino-functional alkoxysilane, optionally C) at least one catalyst for the crosslinking of silane groups, and D) optionally further auxiliaries and additives,
A bubble removing method for an inkjet head that includes a pressure chamber intercommunicating with a nozzle , an ink storage chamber intercommunicating with the pressure chamber , and a first filter disposed in the ink storage chamber , the ink storage chamber being divided by the first filter into an upstream-side ink chamber distal to the pressure chamber and a downstream-side ink chamber proximal to the pressure chamber , comprising: providing a first ink port for inflow of ink and a second ink port for discharge of ink at an upper portion of the upstream-side ink chamber , and providing a third ink port for discharge of ink at an upper portion inside the downstream-side ink chamber without the first filter existing therebetween; opening each of flow passages intercommunicating with the first ink port and the second ink port , and closing a flow passage intercommunicating with the third ink port so as to cause ink to flow from the first ink port into the upstream-side ink chamber and cause ink to discharge from the second ink port , thereby removing bubbles (B1) in the upstream-side ink chamber ; and subsequently closing the flow passage intercommunicating with the second ink port , and opening the flow passage intercommunicating with the third ink port so as to cause ink to flow in from the first ink port and flow from the upstream-side ink chamber through the first filter to the downstream-side ink chamber , and cause ink flowing to the third ink port in the downstream-side ink chamber to discharge from the third ink port , thereby removing bubbles (B2) in the downstream-side ink chamber . providing a first ink port for inflow of ink and a second ink port for discharge of ink at an upper portion of the upstream-side ink chamber , and providing a third ink port for discharge of ink at an upper portion inside the downstream-side ink chamber without the first filter existing therebetween; opening each of flow passages intercommunicating with the first ink port and the second ink port , and closing a flow passage intercommunicating with the third ink port so as to cause ink to flow from the first ink port into the upstream-side ink chamber and cause ink to discharge from the second ink port , thereby removing bubbles (B1) in the upstream-side ink chamber ; and subsequently closing the flow passage intercommunicating with the second ink port , and opening the flow passage intercommunicating with the third ink port so as to cause ink to flow in from the first ink port and flow from the upstream-side ink chamber through the first filter to the downstream-side ink chamber , and cause ink flowing to the third ink port in the downstream-side ink chamber to discharge from the third ink port , thereby removing bubbles (B2) in the downstream-side ink chamber .
An apparatus, comprising: a display panel configured to display an image; a cover bottom configured to cover the display panel ; a plurality of sound-generating actuators supported by the cover bottom , the plurality of sound-generating actuators configured to vibrate the display panel to generate sound, and comprising a first actuator and a second actuator ; an actuator fixing device configured to support the first actuator and the second actuator to be adjacent to each other, and comprising a first support part configured to support the first actuator , and a second support part configured to support the second actuator ; and a self-clinching nut fixed to the cover bottom , wherein the actuator fixing device further comprises a plurality of mounting holes (1310 - 1340) for fixing the actuator fixing device to the cover bottom , wherein the actuator fixing device is fixed to the self-clinching nut by a fixing bolt in the mounting hole (1310 - 1340). a display panel configured to display an image; a cover bottom configured to cover the display panel ; a plurality of sound-generating actuators supported by the cover bottom , the plurality of sound-generating actuators configured to vibrate the display panel to generate sound, and comprising a first actuator and a second actuator ; an actuator fixing device configured to support the first actuator and the second actuator to be adjacent to each other, and comprising a first support part configured to support the first actuator , and a second support part configured to support the second actuator ; and a self-clinching nut fixed to the cover bottom , wherein the actuator fixing device further comprises a plurality of mounting holes (1310 - 1340) for fixing the actuator fixing device to the cover bottom , wherein the actuator fixing device is fixed to the self-clinching nut by a fixing bolt in the mounting hole (1310 - 1340).
Method for adjusting the deformation of a safety element of a motor vehicle, wherein the safety element has a crash element and a longitudinal carrier , wherein the crash element in the impact direction is arranged and constructed in front of the longitudinal carrier in order to absorb a substantially axial impact force (F), characterized in that between the crash element and the longitudinal carrier there is arranged a shockwave transmitter which is substantially a segment for the targeted reflection or transmission of the impulse waves in a component by converting a jump in impedance by successively placed dissimilar materials, the acoustic impedance being dissimilar within said materials such that, depending on the construction, a proportion of the shockwaves or impulse waves, respectively, created by the impact are reflected back into the crash element and another proportion of the shockwaves or impulse waves, respectively, are allowed to pass through into the longitudinal carrier .
A heat exchange tube, comprising: a tube body , and a fin , arranged on an outer surface of the tube body , and comprising: a fin root part , arranged on the outer surface of the tube body ; a transverse fin part , arranged on the top of the fin root part and extending laterally from two sides of the fin root part ; and a fin top part , arranged on the top of the transverse fin part and configured as a saw-toothed part, a concave portion of the saw-toothed part extending to the transverse fin part ; the heat exchange tube is characterized in that the transverse fin part at least disposed on one side of the fin root part inclines towards the outer surface of the tube body . a tube body , and a fin , arranged on an outer surface of the tube body , and comprising: a fin root part , arranged on the outer surface of the tube body ; a transverse fin part , arranged on the top of the fin root part and extending laterally from two sides of the fin root part ; and a fin top part , arranged on the top of the transverse fin part and configured as a saw-toothed part, a concave portion of the saw-toothed part extending to the transverse fin part ; the heat exchange tube is characterized in that the transverse fin part at least disposed on one side of the fin root part inclines towards the outer surface of the tube body . a fin root part , arranged on the outer surface of the tube body ; a transverse fin part , arranged on the top of the fin root part and extending laterally from two sides of the fin root part ; and a fin top part , arranged on the top of the transverse fin part and configured as a saw-toothed part, a concave portion of the saw-toothed part extending to the transverse fin part ; the heat exchange tube is characterized in that the transverse fin part at least disposed on one side of the fin root part inclines towards the outer surface of the tube body .
A dishwasher , comprising: a case having a dishwashing space disposed therein; a door openably attached to the case ; a base on which the case is supported; and a single sound-insulation member that substantially prevents noise discharge between a lower end of the door and a front frame of the case , through a front side of the base , and between the base and the floor, characterized in that the single sound-insulation member is formed with a bent portion , to maintain the toe kick space below the door , wherein the bent portion is formed at a portion of the sound-insulation member corresponding to the front upper end of the base and is configured such that the end of the sound-insulation member extends horizontally to the lower end of the door and the other end of the sound-insulation member extends vertically to the installation plane (S) of the dishwasher . a case having a dishwashing space disposed therein; a door openably attached to the case ; a base on which the case is supported; and a single sound-insulation member that substantially prevents noise discharge between a lower end of the door and a front frame of the case , through a front side of the base , and between the base and the floor, characterized in that the single sound-insulation member is formed with a bent portion , to maintain the toe kick space below the door , wherein the bent portion is formed at a portion of the sound-insulation member corresponding to the front upper end of the base and is configured such that the end of the sound-insulation member extends horizontally to the lower end of the door and the other end of the sound-insulation member extends vertically to the installation plane (S) of the dishwasher .
A heat dissipation assembly, comprising: a shielding element , wherein the shielding element has a via hole , the shielding element is electrically connected to a ground copper of a printed circuit board, PCB, , and a heat-generating electronic element is disposed on the PCB ; a heat pipe , located on the via hole , wherein the heat pipe is electrically connected to the shielding element , and the heat pipe , the PCB , and the shielding element form an electromagnetic shielding can that is used to accommodate the heat-generating electronic element ; and a first elastic thermal interface material , located between the heat pipe and the heat-generating electronic element , and mutually fitted to the heat pipe and the heat-generating electronic element ; wherein the heat dissipation assembly further comprises: a second elastic thermal interface material , mutually fitted to the heat pipe ; and a thermally conductive metal block , disposed between the second elastic thermal interface material and the PCB , and mutually fitted to the second elastic thermal interface material , wherein the thermally conductive metal block is connected to the heat-generating electronic element by using a thermally conductive layer on the PCB . a shielding element , wherein the shielding element has a via hole , the shielding element is electrically connected to a ground copper of a printed circuit board, PCB, , and a heat-generating electronic element is disposed on the PCB ; a heat pipe , located on the via hole , wherein the heat pipe is electrically connected to the shielding element , and the heat pipe , the PCB , and the shielding element form an electromagnetic shielding can that is used to accommodate the heat-generating electronic element ; and a first elastic thermal interface material , located between the heat pipe and the heat-generating electronic element , and mutually fitted to the heat pipe and the heat-generating electronic element ; wherein the heat dissipation assembly further comprises: a second elastic thermal interface material , mutually fitted to the heat pipe ; and a thermally conductive metal block , disposed between the second elastic thermal interface material and the PCB , and mutually fitted to the second elastic thermal interface material , wherein the thermally conductive metal block is connected to the heat-generating electronic element by using a thermally conductive layer on the PCB . a second elastic thermal interface material , mutually fitted to the heat pipe ; and a thermally conductive metal block , disposed between the second elastic thermal interface material and the PCB , and mutually fitted to the second elastic thermal interface material , wherein the thermally conductive metal block is connected to the heat-generating electronic element by using a thermally conductive layer on the PCB .
A compound of formula I, or a pharmaceutically acceptable salt thereof, wherein: R 1 is (CH 2 ) m NR 11 R 12 ; R 2 is selected from H, halo, OR 13 , NHR 13 , alkyl, alkenyl and alkynyl; R 3 is selected from alkyl, NHCO 2 R 4 , NHCONR 5 R 6 , NHCONH-alkyl, NHCOR 7 , NH(CH 2 ) n -aryl, (CH 2 ) p -heteroaryl and (CH 2 ) q CO 2 R 3 , , wherein each alkyl, alkenyl, aryl or heteroaryl moiety in the aforementioned list is optionally further substituted by one or more groups selected from alkyl, halo, OH, NH 2 , alkoxy, aryloxy, alkylamino, arylamino, carboxyl and carboxamide; R 4 to R 8 and R 13 are each independently selected from alkyl, alkenyl and aryl; R 11 and R 12 are each independently selected from alkyl and alkenyl; or R 11 and R 12- are linked together with the nitrogen to which they are attached to form a heterocycloalkyl or heterocycloalkenyl group; n, m, p and q are each independently selected from 0, 1, and 2. R 1 is (CH 2 ) m NR 11 R 12 ; R 2 is selected from H, halo, OR 13 , NHR 13 , alkyl, alkenyl and alkynyl; R 3 is selected from alkyl, NHCO 2 R 4 , NHCONR 5 R 6 , NHCONH-alkyl, NHCOR 7 , NH(CH 2 ) n -aryl, (CH 2 ) p -heteroaryl and (CH 2 ) q CO 2 R 3 , , wherein each alkyl, alkenyl, aryl or heteroaryl moiety in the aforementioned list is optionally further substituted by one or more groups selected from alkyl, halo, OH, NH 2 , alkoxy, aryloxy, alkylamino, arylamino, carboxyl and carboxamide; R 4 to R 8 and R 13 are each independently selected from alkyl, alkenyl and aryl; R 11 and R 12 are each independently selected from alkyl and alkenyl; or R 11 and R 12- are linked together with the nitrogen to which they are attached to form a heterocycloalkyl or heterocycloalkenyl group; n, m, p and q are each independently selected from 0, 1, and 2.
Method for detecting an impact on an elevator door panel, comprising - detecting a break in an elevator door safety circuit , the break being caused by a heavy enough impact directed at a door panel making the door panel a slight jump, temporarily opening a door safety switch , or causing it to signal open position of the door lock , characterized in that the method further comprises - comparing characteristics of the break to a set of parameters, said set of parameters being one or more threshold values for each characteristic of the break which correlates with the break being caused by an impact on the door, to evaluate if an action needs to be performed; and - performing an action when the characteristics of the break fulfil the conditions determined by the set of parameters. - detecting a break in an elevator door safety circuit , the break being caused by a heavy enough impact directed at a door panel making the door panel a slight jump, temporarily opening a door safety switch , or causing it to signal open position of the door lock , characterized in that the method further comprises - comparing characteristics of the break to a set of parameters, said set of parameters being one or more threshold values for each characteristic of the break which correlates with the break being caused by an impact on the door, to evaluate if an action needs to be performed; and - performing an action when the characteristics of the break fulfil the conditions determined by the set of parameters.
A wireless communication method performed by a first wireless communication node (A), for relaying operational data related to expected arrival times of a second wireless communication node (B) at specific locations at a work site , said method comprising: - determining (S1) a first neighbor topology for the first wireless communication node, the first neighbor topology indicating wireless communication nodes (B, C) located within a wireless transmission range from the first wireless communication node, - receiving wirelessly (S2) a first message from the second wireless communication node (B) comprised with the first neighbor topology, the first message comprising a first set of data , an indication of an identity (ID2) of the second wireless communication node and a second neighbor topology for the second wireless communication node, the second neighbor topology indicating wireless communication nodes (B) located within a wireless transmission range from the second wireless communication node, the first set of data being the operational data - comparing (S3) the first neighbor topology with the second neighbor topology, and - if the comparison indicates a difference between the first and the second neighbor topology, broadcasting wirelessly (S4) a second message , the second message comprising at least the first set of data and the indication of the identity (ID2) of the second wireless communication node. - determining (S1) a first neighbor topology for the first wireless communication node, the first neighbor topology indicating wireless communication nodes (B, C) located within a wireless transmission range from the first wireless communication node, - receiving wirelessly (S2) a first message from the second wireless communication node (B) comprised with the first neighbor topology, the first message comprising a first set of data , an indication of an identity (ID2) of the second wireless communication node and a second neighbor topology for the second wireless communication node, the second neighbor topology indicating wireless communication nodes (B) located within a wireless transmission range from the second wireless communication node, the first set of data being the operational data - comparing (S3) the first neighbor topology with the second neighbor topology, and - if the comparison indicates a difference between the first and the second neighbor topology, broadcasting wirelessly (S4) a second message , the second message comprising at least the first set of data and the indication of the identity (ID2) of the second wireless communication node.
A transmitter for securely transmitting data, comprising: an actuator configured to generate electrical impulses, the electrical impulses representing user credentials including an electronic token; an encoder encoding the user credentials; a transducer configured to emit sound waves by converting the electrical impulses , in response to actuation of the actuator , characterized in that the electrical impulses comprise modulated audio frequency carrier signals and the audio frequency carrier signals are transmitted using modulation schemes involving multi-frequency FSK and multiple transmissions, wherein multiple FSK frequency pairs are used in a sequence of transmissions wherein data in a sequence is transmitted at different data rates, wherein in a transmission two frequencies are transmitted alternatingly at a rate of a bit rate. an actuator configured to generate electrical impulses, the electrical impulses representing user credentials including an electronic token; an encoder encoding the user credentials; a transducer configured to emit sound waves by converting the electrical impulses , in response to actuation of the actuator , characterized in that the electrical impulses comprise modulated audio frequency carrier signals and the audio frequency carrier signals are transmitted using modulation schemes involving multi-frequency FSK and multiple transmissions, wherein multiple FSK frequency pairs are used in a sequence of transmissions wherein data in a sequence is transmitted at different data rates, wherein in a transmission two frequencies are transmitted alternatingly at a rate of a bit rate.
A metal clad laminate at least comprising a thermoplastic liquid crystal polymer film and a metallic foil bonded to each other, wherein the thermoplastic liquid crystal polymer film has a surface with a glossiness (20°) of 55 or higher in accordance with JIS Z 8741 on the opposite side of the bonding surface to the metallic foil .