mhurhangee/patent-ind-claim-en huggingface dataset:
A classification device comprising: - a side information calculating unit for calculating side information for assisting classification processing; and - a multilayer neural network including an input layer , an intermediate layer , and an output layer , for, when there is a discrepancy between a processing result of classification processing using image data shot with a camera inputted to the input layer , and the side information, changing an output value of the intermediate layer and performing classification processing again, - wherein the processing result is one of a plurality of classes implying information about the actual size of an object, - wherein the side information calculating unit calculates information about a distance between the camera and the object to be shot and about the actual size of the object based on the distance and the image data and calculates and outputs as side information based on the actual size of the object a likelihood that the object is classified as belonging to a class of said plurality of classes or outputs as side information the actual size of the object; - and wherein the changing an output value of the intermediate layer comprises: the multilayer neural network identifies a node (201-1, 201-2,..., 201-n; 30-1, 30-2,..., 30-m) that has greatly contributed, meaning contributed equal to or greater than a threshold, to calculation in the output layer of the processing result, out of multiple nodes that constitute the intermediate layer , and changes an output value of the identified node to a smaller value. - a side information calculating unit for calculating side information for assisting classification processing; and - a multilayer neural network including an input layer , an intermediate layer , and an output layer , for, when there is a discrepancy between a processing result of classification processing using image data shot with a camera inputted to the input layer , and the side information, changing an output value of the intermediate layer and performing classification processing again, - wherein the processing result is one of a plurality of classes implying information about the actual size of an object, - wherein the side information calculating unit calculates information about a distance between the camera and the object to be shot and about the actual size of the object based on the distance and the image data and calculates and outputs as side information based on the actual size of the object a likelihood that the object is classified as belonging to a class of said plurality of classes or outputs as side information the actual size of the object; - and wherein the changing an output value of the intermediate layer comprises: the multilayer neural network identifies a node (201-1, 201-2,..., 201-n; 30-1, 30-2,..., 30-m) that has greatly contributed, meaning contributed equal to or greater than a threshold, to calculation in the output layer of the processing result, out of multiple nodes that constitute the intermediate layer , and changes an output value of the identified node to a smaller value.
Assembly including an avionics cabinet and a module , said avionics cabinet having a plurality of slots , said module being intended to be inserted into one of the slots of the avionics cabinet according to a longitudinal axis (X) and to be reversibly held fixed therein in a so-called operative position, the module including a first face , intended to be opposite a first wall of the avionics cabinet , characterised in that , for each slot, the first wall of the avionics cabinet includes a first optical network including first optical emitter units and first optical receiver units , in that the first face of the module includes a second optical network including second optical emitter units and second optical receiver units , and in that when the module is in the operative position in the avionics cabinet , the first optical network and the second optical network are remote from each other by a predefined distance (d) and, in that : - each second optical emitter unit of the first face of the module is disposed opposite a first optical receiver unit of the first wall of the avionics cabinet to ensure an optical link between said units, - each second optical receiver unit of the first face of the module is disposed opposite a first optical emitter unit of the first wall of the avionics cabinet to ensure an optical link between said units. - each second optical emitter unit of the first face of the module is disposed opposite a first optical receiver unit of the first wall of the avionics cabinet to ensure an optical link between said units, - each second optical receiver unit of the first face of the module is disposed opposite a first optical emitter unit of the first wall of the avionics cabinet to ensure an optical link between said units.
Magnetic circuit device for a magnetic-inductive flowmeter, having a coil arrangement comprising a coil and a coil core arranged in the coil , wherein the coil core is designed to be flexible, such that the coil arrangement can be bent from a first shape into a second shape, wherein the magnetic circuit device has two pole plates and that the coil core is connected at least indirectly to the pole plates .
A communication mode switching method, comprising: receiving, by a non-access point multi-link device (121 - 122), non-AP MLD, a radio frame from an access point multi-link device (111 - 112), AP MLD, wherein the radio frame indicates the non-AP MLD to perform link configuration switching; and switching , by the non-AP MLD, from performing communication by using a second configuration to performing communication by using a first configuration, wherein the non-AP MLD communicates with the AP MLD on one or more links and the non-AP MLD includes multiple affiliated stations, STAs, wherein one affiliated STA work on one link, under the first configuration, the non-AP MLD can perform communication on N links, under the second configuration, the non-AP MLD can perform communication on M links, M is an integer greater than 1 or equal to 1, N is an integer greater than 2 or equal to 2, and N is greater than M. receiving, by a non-access point multi-link device (121 - 122), non-AP MLD, a radio frame from an access point multi-link device (111 - 112), AP MLD, wherein the radio frame indicates the non-AP MLD to perform link configuration switching; and switching , by the non-AP MLD, from performing communication by using a second configuration to performing communication by using a first configuration, wherein the non-AP MLD communicates with the AP MLD on one or more links and the non-AP MLD includes multiple affiliated stations, STAs, wherein one affiliated STA work on one link, under the first configuration, the non-AP MLD can perform communication on N links, under the second configuration, the non-AP MLD can perform communication on M links, M is an integer greater than 1 or equal to 1, N is an integer greater than 2 or equal to 2, and N is greater than M.
A screen installation structure , configured to mount a screen to a tent , the screen installation structure comprising: a first mounting element , suitable to be mounted to the tent ; a first retractable component , mounted in the first mounting element , the first retractable component comprising a rotatable first through-cloth tube configured to connect with one end of the screen ; a second retractable component , configured to connect with other end of the screen for opening or collapsing the screen ; and a second mounting element , configured to fit with the second retractable component , wherein the second mounting element is suitable to be mounted to the tent when the screen is opened, the second retractable component is anchored to the second mounting element , and when the screen is collapsed, the second retractable component abuts against one side of the first mounting element characterised in that the second retractable component comprises a second through-cloth tube and a handle component , the second through-cloth tube is configured to connect with the screen , the handle component is disposed at the through-cloth tube, the second mounting element comprises a second tube part and a handle disposing part , the handle disposing part is disposed at the second tube part , and the handle disposing part is configured to be anchored by the handle component , and the second mounting element further comprises a tube disposing part disposed at the second tube part , and the tube disposing part has a tube receiving groove configured to fit with the second through-cloth tube . a first mounting element , suitable to be mounted to the tent ; a first retractable component , mounted in the first mounting element , the first retractable component comprising a rotatable first through-cloth tube configured to connect with one end of the screen ; a second retractable component , configured to connect with other end of the screen for opening or collapsing the screen ; and a second mounting element , configured to fit with the second retractable component , wherein the second mounting element is suitable to be mounted to the tent when the screen is opened, the second retractable component is anchored to the second mounting element , and when the screen is collapsed, the second retractable component abuts against one side of the first mounting element characterised in that the second retractable component comprises a second through-cloth tube and a handle component , the second through-cloth tube is configured to connect with the screen , the handle component is disposed at the through-cloth tube, the second mounting element comprises a second tube part and a handle disposing part , the handle disposing part is disposed at the second tube part , and the handle disposing part is configured to be anchored by the handle component , and the second mounting element further comprises a tube disposing part disposed at the second tube part , and the tube disposing part has a tube receiving groove configured to fit with the second through-cloth tube .
Organic Rankine cycle system with cascade cycles comprising a first organic Rankine cycle which operates at high temperature, in which a first organic working fluid carries out a heat exchange with a hot source fluid and at least a second organic Rankine cycle which operates at a temperature lower than the temperature of the first organic Rankine cycle and in which a second organic working fluid carries out a heat exchange with the same hot source, each organic Rankine cycle comprising: - at least a feed pump to feed the organic working fluid in the liquid phase, - at least a first preheater for preheating the organic working fluid, - at least an evaporator to vaporize the organic working fluid, - at least an expansion turbine which expands the vapor of the organic working fluid, - at least a condenser which brings the organic working fluid back into the liquid phase, wherein the evaporator of the first organic Rankine cycle is fed by the entire flow rate of the hot source fluid, said organic Rankine cycle system being characterized in that - the evaporator and the preheater of said at least a second organic Rankine cycle are fed by a first partial flow of the hot source fluid, and - a remaining second partial flow of the hot source fluid is used to at least partially carry out the preheating of the organic working fluid of the first organic Rankine cycle . - at least a feed pump to feed the organic working fluid in the liquid phase, - at least a first preheater for preheating the organic working fluid, - at least an evaporator to vaporize the organic working fluid, - at least an expansion turbine which expands the vapor of the organic working fluid, - at least a condenser which brings the organic working fluid back into the liquid phase, wherein the evaporator of the first organic Rankine cycle is fed by the entire flow rate of the hot source fluid, said organic Rankine cycle system being characterized in that wherein the evaporator of the first organic Rankine cycle is fed by the entire flow rate of the hot source fluid, said organic Rankine cycle system being characterized in that - the evaporator and the preheater of said at least a second organic Rankine cycle are fed by a first partial flow of the hot source fluid, and - a remaining second partial flow of the hot source fluid is used to at least partially carry out the preheating of the organic working fluid of the first organic Rankine cycle .
A controller for controlling behavior of a straddle-type vehicle , the controller comprising: an acquisition section that acquires trigger information during travel of the straddle-type vehicle ; and an execution section that initiates a control mode according to the trigger information, in the control mode, behavior control operation to make the straddle-type vehicle automatically decelerate or automatically accelerate being performed, characterized in that the acquisition section further acquires lateral acceleration information of the traveling straddle-type vehicle , and in the control mode, the execution section changes the behavior control operation according to the lateral acceleration information, which is acquired by the acquisition section , in the control mode, in the case where the lateral acceleration information, which is acquired by the acquisition section , is information indicating that the lateral acceleration exceeding a reference value is generated to the straddle-type vehicle , the execution section cancels the behavior control operation. an acquisition section that acquires trigger information during travel of the straddle-type vehicle ; and an execution section that initiates a control mode according to the trigger information, in the control mode, behavior control operation to make the straddle-type vehicle automatically decelerate or automatically accelerate being performed, characterized in that the acquisition section further acquires lateral acceleration information of the traveling straddle-type vehicle , and in the control mode, the execution section changes the behavior control operation according to the lateral acceleration information, which is acquired by the acquisition section , in the control mode, in the case where the lateral acceleration information, which is acquired by the acquisition section , is information indicating that the lateral acceleration exceeding a reference value is generated to the straddle-type vehicle , the execution section cancels the behavior control operation.
A reactor at least for pyrolysis of hydrocarbon-containing fluids at least for production of at least hydrogen-containing fluids , wherein the reactor has a reactor shell and a reactor shaft disposed within the reactor shell , and a reactor lining at least for thermal sealing of the reactor shaft with respect to the reactor shell is disposed between the reactor shell and the reactor shaft , characterized in that the reactor shaft has a geometry with four or more than four vertices in cross section, where at least one electrode for generation of thermal energy is disposed on each of two mutually opposite side walls of the reactor shaft . the reactor has a reactor shell and a reactor shaft disposed within the reactor shell , and a reactor lining at least for thermal sealing of the reactor shaft with respect to the reactor shell is disposed between the reactor shell and the reactor shaft , characterized in that the reactor shaft has a geometry with four or more than four vertices in cross section, where at least one electrode for generation of thermal energy is disposed on each of two mutually opposite side walls of the reactor shaft .
Method for determining signal activities of traffic signals of an electrical signalling device , comprising at least two traffic signals , current values of the signals being measured, and the signal activities being carried out depending on a comparison between measured current values of the signals and at least one stored current threshold value, characterized in that one of the signals is first determined as a reference signal , in that current and/or voltage curves of the reference signal and of the further signal are measured, and in that the signal activity of a further signal of the at least two traffic signals is determined both depending on the comparison between the measured current value of the further signal and the at least one stored current threshold value, and also depending on a phase shift between the measured current and/or voltage curves of the reference signal and the further signal . current values of the signals being measured, and the signal activities being carried out depending on a comparison between measured current values of the signals and at least one stored current threshold value, characterized in that one of the signals is first determined as a reference signal , in that current and/or voltage curves of the reference signal and of the further signal are measured, and in that the signal activity of a further signal of the at least two traffic signals is determined both depending on the comparison between the measured current value of the further signal and the at least one stored current threshold value, and also depending on a phase shift between the measured current and/or voltage curves of the reference signal and the further signal .
Process for the production of cast polyamides via polymerization of lactams in the presence of at least one activator selected from the group comprising 2,4-tolylene diisocyanate (TDI), 2,6-tolylene diisocyanate, a mixture of 2,4-tolylene diisocyanate and 2,6-tolylene diisocyanate, hexamethylene diisocyanate, cyclohexane 1,4-diisocyanate, xylylene diisocyanate, isophorone diisocyanate, 1,5-naphthalene diisocyanate, 4,4'-diphenylmethane diisocyanate, 2,4'-diphenylmethane diisocyanate, 2,2'-diphenylmethane diisocyanate, 4,4'-diphenyldimethylmethane diisocyanate, 1,3-phenylene diisocyanate, 1,4-phenylene diisocyanate, dicyclohexylmethane 4,4'-diisocyanate, dicyclohexylmethane 2,4'-diisocyanate, dicyclohexylmethane 2,2'-diisocyanate, methylcyclohexane diisocyanate, tetramethylxylylene diisocyanate, 2,6-diisopropylphenylene isocyanate, and of at least one catalyst, characterized in that a) at most 5% by weight of the activator is added at temperatures between 70 and 120°C to a lactam melt, and this is homogenized, isolated, optionally dried, packaged and stored, or pastillated on a pastillating belt or flaked on a flaking roll, b) at most 5% by weight of the catalyst is added at temperatures between 70 and 120°C to a lactam melt, and this is homogenized, and then pastillated on a pastillating belt or flaked on a flaking roll, the melts from a) and b) are mixed together and then are polymerized in the casting mould at temperatures between 80 and 160°C. a) at most 5% by weight of the activator is added at temperatures between 70 and 120°C to a lactam melt, and this is homogenized, isolated, optionally dried, packaged and stored, or pastillated on a pastillating belt or flaked on a flaking roll, b) at most 5% by weight of the catalyst is added at temperatures between 70 and 120°C to a lactam melt, and this is homogenized, and then pastillated on a pastillating belt or flaked on a flaking roll,
Heat treatment device for a material in powder form, comprising: - a heat treatment furnace having a heating zone, and - a quenching tank , characterized in that the quenching tank comprises a container at least partially filled with a plurality of n solid elements, n being between 100 and 100 000, and in that the heat treatment furnace is mounted so that it is mobile, so that the contents of the heat treatment furnace can be transferred to the quenching tank . - a heat treatment furnace having a heating zone, and - a quenching tank ,
A handheld vacuum cleaner comprising: a housing having a front end , a back end , a first side , and a second side ; a suction nozzle located at the front end of the housing ; a suction source operable to generate an airflow through the vacuum cleaner from the suction nozzle through a cyclonic separator to a clean air exhaust ; the cyclonic separator operable to separate debris from the airflow, the cyclonic separator located within the housing, the cyclonic separator including, a cylindrical wall having a first end and a second end , a first end wall located at the first end of the cylindrical wall, a dirty air inlet , a clean air outlet , a debris outlet adjacent the second end of the cylindrical wall, a longitudinal axis along the cylindrical wall and the longitudinal axis of the cyclonic separator extends in a generally horizontal direction when the vacuum cleaner is in use toward the first and second sides of the housing; and a debris collection chamber located within the housing and in fluid communication with the debris outlet of the cyclonic separator; wherein the housing includes an aperture that extends through the first side, and wherein the first end wall of the cyclonic separator is removable through the aperture of the first side of the housing. a housing having a front end , a back end , a first side , and a second side ; a suction nozzle located at the front end of the housing ; a suction source operable to generate an airflow through the vacuum cleaner from the suction nozzle through a cyclonic separator to a clean air exhaust ; the cyclonic separator operable to separate debris from the airflow, the cyclonic separator located within the housing, the cyclonic separator including, a cylindrical wall having a first end and a second end , a first end wall located at the first end of the cylindrical wall, a dirty air inlet , a clean air outlet , a debris outlet adjacent the second end of the cylindrical wall, a longitudinal axis along the cylindrical wall and the longitudinal axis of the cyclonic separator extends in a generally horizontal direction when the vacuum cleaner is in use toward the first and second sides of the housing; and a cylindrical wall having a first end and a second end , a first end wall located at the first end of the cylindrical wall, a dirty air inlet , a clean air outlet , a debris outlet adjacent the second end of the cylindrical wall, a longitudinal axis along the cylindrical wall and the longitudinal axis of the cyclonic separator extends in a generally horizontal direction when the vacuum cleaner is in use toward the first and second sides of the housing; and a debris collection chamber located within the housing and in fluid communication with the debris outlet of the cyclonic separator; wherein the housing includes an aperture that extends through the first side, and wherein the first end wall of the cyclonic separator is removable through the aperture of the first side of the housing.