mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented system for intra-application connectivity of distributed applications over a wide area network, comprising: a plurality of servers operating as a peer-to-peer server cluster wherein each server includes a tunnel gateway application and wherein each tunnel gateway application includes a plurality of Terminal Control Protocol, TCP, listeners ; a distributed application wherein a separate instance of the distributed application is instantiated on each of the plurality of servers and each instantiation is communicatively coupled with the tunnel gateway application resident on that server through a direct layer-4 TCP network route wherein the direct layer-4 TCP network route includes a unique TCP connector/listener pair, whereby client application data is conveyed to the tunnel gateway application from the distributed application instantiation using a TCP transport suitable format and wherein each instantiation of the distributed application is communicatively coupled to each other instantiation of the distributed application via the tunnel gateway application using the unique TCP connector/listener pair through a loopback port assigned to the distributed application instance on each server; and a User Datagram Protocol, UDP, datagram-orientated communication channel between each tunnel gateway application whereby each instance of the distributed application can thereafter access the distributed application instance on each peer in the peer-to-peer server cluster. a plurality of servers operating as a peer-to-peer server cluster wherein each server includes a tunnel gateway application and wherein each tunnel gateway application includes a plurality of Terminal Control Protocol, TCP, listeners ; a distributed application wherein a separate instance of the distributed application is instantiated on each of the plurality of servers and each instantiation is communicatively coupled with the tunnel gateway application resident on that server through a direct layer-4 TCP network route wherein the direct layer-4 TCP network route includes a unique TCP connector/listener pair, whereby client application data is conveyed to the tunnel gateway application from the distributed application instantiation using a TCP transport suitable format and wherein each instantiation of the distributed application is communicatively coupled to each other instantiation of the distributed application via the tunnel gateway application using the unique TCP connector/listener pair through a loopback port assigned to the distributed application instance on each server; and a User Datagram Protocol, UDP, datagram-orientated communication channel between each tunnel gateway application whereby each instance of the distributed application can thereafter access the distributed application instance on each peer in the peer-to-peer server cluster.
Method for planning the application of a spreadable material mixture using an agricultural spreader, comprising the step of: - detecting the individual components (12-16) of the spreadable material mixture ; characterized by the steps of: - determining component-related setting parameters for the agricultural spreader for a planned spreading process for a plurality of or all individual components (12-16) of the spreadable material mixture ; and - evaluating the common applicability of the individual components (12-16) of the spreadable material mixture on the basis of the determined component-related setting parameters by a calculating means , characterized in that evaluating the common applicability of the individual components (12-16) of the spreadable material mixture comprises the following step: - investigating the existence of one or more compromise setting parameters , the setting of which on the agricultural spreader causes the lateral distributions of a plurality of or all individual components (12-16) of the spreadable material mixture to lie within a tolerance range, and in that outputting a result of the evaluation of the common applicability of the individual components (12-16) of the spreadable material mixture has the following step: - outputting the one or more compromise setting parameters as setting recommendations for the agricultural spreader. - detecting the individual components (12-16) of the spreadable material mixture ; characterized by the steps of: - determining component-related setting parameters for the agricultural spreader for a planned spreading process for a plurality of or all individual components (12-16) of the spreadable material mixture ; and - evaluating the common applicability of the individual components (12-16) of the spreadable material mixture on the basis of the determined component-related setting parameters by a calculating means , - investigating the existence of one or more compromise setting parameters , the setting of which on the agricultural spreader causes the lateral distributions of a plurality of or all individual components (12-16) of the spreadable material mixture to lie within a tolerance range, and in that outputting a result of the evaluation of the common applicability of the individual components (12-16) of the spreadable material mixture has the following step: - outputting the one or more compromise setting parameters as setting recommendations for the agricultural spreader.
A communication link adjustment method, performed by an electronic device, comprising: acquiring interference information of a communication link under a multi-connection scenario; determining , according to the interference information, whether an isolation degree value between the communication link and a current interfering link exceeds a range defined by a preset isolation degree threshold; and in a case where the isolation degree value of the communication link exceeds the range defined by the preset isolation degree threshold, adaptively adjusting the communication link according to the isolation degree value and an isolation degree adjustment mapping table until the isolation degree value meets a requirement for a wireless performance index, wherein the isolation degree adjustment mapping table comprises a mapping relationship between isolation degree values and path parameters; wherein the isolation degree value comprises a transmission isolation degree value and a radiation isolation degree value; the transmission isolation degree value refers to, for transmission paths, an isolation degree value between two or more transmission paths; the radiation isolation degree value refers to an isolation degree value generated by the transmission of signals between different transmitting antennae or receiving antennae; adjusting the communication link comprises: switching a transmission path and/or switching a radiation path. acquiring interference information of a communication link under a multi-connection scenario; determining , according to the interference information, whether an isolation degree value between the communication link and a current interfering link exceeds a range defined by a preset isolation degree threshold; and in a case where the isolation degree value of the communication link exceeds the range defined by the preset isolation degree threshold, adaptively adjusting the communication link according to the isolation degree value and an isolation degree adjustment mapping table until the isolation degree value meets a requirement for a wireless performance index, wherein the isolation degree adjustment mapping table comprises a mapping relationship between isolation degree values and path parameters; wherein the isolation degree value comprises a transmission isolation degree value and a radiation isolation degree value; the transmission isolation degree value refers to, for transmission paths, an isolation degree value between two or more transmission paths; the radiation isolation degree value refers to an isolation degree value generated by the transmission of signals between different transmitting antennae or receiving antennae; adjusting the communication link comprises: switching a transmission path and/or switching a radiation path.
An information processing apparatus comprising: a position detection unit for detecting positions of a plurality of operating tools pressing a screen; a pressure intensity detection unit for detecting pressure intensity of each of the operating tools; a storage unit having recorded thereon a plurality of predetermined registered patterns, each indicating relative positions and pressure intensity ratios between operating tools, and a corresponding command; a relative information detection unit for calculating, based on an input pattern expressing the positions detected by the position detection unit and the pressure intensities detected by the pressure intensity detection unit , information on relative positions and pressure intensity ratios, and for extracting a registered pattern with a highest degree of approximation to the information on relative positions and pressure intensity ratios; and a command execution unit for executing the predetermined command, among the stored plurality of commands, corresponding to the registered pattern extracted by the relative information detection unit . a position detection unit for detecting positions of a plurality of operating tools pressing a screen; a pressure intensity detection unit for detecting pressure intensity of each of the operating tools; a storage unit having recorded thereon a plurality of predetermined registered patterns, each indicating relative positions and pressure intensity ratios between operating tools, and a corresponding command; a relative information detection unit for calculating, based on an input pattern expressing the positions detected by the position detection unit and the pressure intensities detected by the pressure intensity detection unit , information on relative positions and pressure intensity ratios, and for extracting a registered pattern with a highest degree of approximation to the information on relative positions and pressure intensity ratios; and a command execution unit for executing the predetermined command, among the stored plurality of commands, corresponding to the registered pattern extracted by the relative information detection unit .
A load controller , comprising: a casing ; a busbar module , the busbar module comprising a DC busbar and an AC busbar , and the AC busbar is configured to be connected to a load; a capacitor , which is configured to be connected to an external DC power supply, and the capacitor being connected to the DC busbar ; an IGBT power module , the IGBT power module comprising at least one column of IGBTs, one column of IGBTs comprising a plurality of IGBTs, an input end of each IGBT being connected to the DC busbar , and an output end of each IGBT being connected to the AC busbar ; and a heat-dissipating module , the heat-dissipating module comprising a plurality of heat-dissipating fins , and each IGBT in the same column of IGBTs being sandwiched between two adjacent heat-dissipating fins , wherein the busbar module , the IGBT power module and the heat-dissipating module are disposed on the casing , the busbar module is located below the IGBT power module , and the capacitor is located at a side of the IGBT power module and the busbar module , characterized in that the heat-dissipating module further comprises a first flow deflecting channel and a second flow deflecting channel , the heat-dissipating module comprises a main water inlet pipe and a main water outlet pipe , each heat-dissipating fin comprises a first water channel and a second water channel separated from each other, the main water inlet pipe communicates with an inlet of each first water channel , the main water inlet pipe communicates with an inlet of each second water channel through the first flow deflecting channel , the main water outlet pipe communicates with an outlet of each first water channel , and the main water outlet pipe communicates with an outlet of each second water channel through the second flow deflecting channel . a casing ; a busbar module , the busbar module comprising a DC busbar and an AC busbar , and the AC busbar is configured to be connected to a load; a capacitor , which is configured to be connected to an external DC power supply, and the capacitor being connected to the DC busbar ; an IGBT power module , the IGBT power module comprising at least one column of IGBTs, one column of IGBTs comprising a plurality of IGBTs, an input end of each IGBT being connected to the DC busbar , and an output end of each IGBT being connected to the AC busbar ; and a heat-dissipating module , the heat-dissipating module comprising a plurality of heat-dissipating fins , and each IGBT in the same column of IGBTs being sandwiched between two adjacent heat-dissipating fins , wherein the busbar module , the IGBT power module and the heat-dissipating module are disposed on the casing , the busbar module is located below the IGBT power module , and the capacitor is located at a side of the IGBT power module and the busbar module , characterized in that
A modular architectural assembly, comprising: a substantially horizontal work surface having an upper side and a lower side, the work surface shaped to define at least one opening in the work surface ; a lower vertical section extending a distance below the work surface from the opening of the work surface , the lower vertical section housing a resource tray having one or more power receptacles and data receptacles , wherein the opening provides access to the resource tray within an interior of the lower vertical section and wherein the resource tray is configured to house one or more user wires extending to the upper or lower side of the work surface ; and an access component configured to enclose the opening of the work surface , the access component being selectively changeable from a closed configuration wherein the opening is partitioned from the work surface to an open configuration wherein the opening is accessible from the work surface wherein the access component is a wire cover configured to overlie the opening to form a substantially flat surface across the work surface and the wire cover , wherein the modular architectural assembly is characterized in that the resource tray is at least partially defined by one or more tray panels , and wherein one or more of a rear edge of the opening of the work surface and an upper edge of a corresponding tray panel are angled and form an angled passage leading from an area outside of the resource tray and underneath the work surface to the interior of the resource tray . a substantially horizontal work surface having an upper side and a lower side, the work surface shaped to define at least one opening in the work surface ; a lower vertical section extending a distance below the work surface from the opening of the work surface , the lower vertical section housing a resource tray having one or more power receptacles and data receptacles , wherein the opening provides access to the resource tray within an interior of the lower vertical section and wherein the resource tray is configured to house one or more user wires extending to the upper or lower side of the work surface ; and an access component configured to enclose the opening of the work surface , the access component being selectively changeable from a closed configuration wherein the opening is partitioned from the work surface to an open configuration wherein the opening is accessible from the work surface wherein the access component is a wire cover configured to overlie the opening to form a substantially flat surface across the work surface and the wire cover , wherein the modular architectural assembly is characterized in that the resource tray is at least partially defined by one or more tray panels , and wherein one or more of a rear edge of the opening of the work surface and an upper edge of a corresponding tray panel are angled and form an angled passage leading from an area outside of the resource tray and underneath the work surface to the interior of the resource tray .
Device for supporting the battery charger for its mounting under the body (C) of a motor vehicle, said device comprising a cradle on which rests a box containing said charger and at least two vertical arms integral with the cradle and ensuring its suspension under the body, characterized in that said box carries at least one protruding tab ensuring assembly with a right-angled spacer coming, on the one hand, to bear against the side wall of said box and the upper face of which comes, on the other hand, to be fixed under the body (C) parallel to the vertical connecting arms .
A bi-directional, self-energizing tracking apparatus (10; 110) capable of redirecting a mistracking conveyor belt back toward a correct travel path whether the conveyor belt is traveling in one direction or in an opposite direction, the tracking apparatus (10; 110) comprising: an idler roller (18; 118) that engages a surface of the conveyor belt ; a frame assembly for operatively mounting the idler roller (18; 118) to conveyor structure; a shiftable connection of the frame assembly for operably connecting the idler roller (18; 118) to the frame assembly and being internal to the idler roller (18; 118) for shifting the idler roller (18; 118) relative to the frame assembly in response to the mistracking conveyor belt , the shiftable connection being configured to allow the idler roller (18; 118) to pivot about a pivot axis (P) such that an end of the idler roller (18; 118) is shifted downstream relative to a neutral position thereof corresponding to the conveyor belt traveling along a correct travel path, and allow the idler roller (18; 118) to tilt such that the downstream end of the idler roller (18; 118) is shifted in a direction transverse to the surface of the conveyor belt so as to increase the force exerted by the idler roller (18; 118) end on the conveyor belt surface for guiding the mistracking conveyor belt back toward a correct travel path; characterized in that the shiftable connection is configured to allow the idler roller (18; 118) to translate along a translation axis transverse to the one conveyor belt direction. an idler roller (18; 118) that engages a surface of the conveyor belt ; a frame assembly for operatively mounting the idler roller (18; 118) to conveyor structure; a shiftable connection of the frame assembly for operably connecting the idler roller (18; 118) to the frame assembly and being internal to the idler roller (18; 118) for shifting the idler roller (18; 118) relative to the frame assembly in response to the mistracking conveyor belt , the shiftable connection being configured to allow the idler roller (18; 118) to pivot about a pivot axis (P) such that an end of the idler roller (18; 118) is shifted downstream relative to a neutral position thereof corresponding to the conveyor belt traveling along a correct travel path, and allow the idler roller (18; 118) to tilt such that the downstream end of the idler roller (18; 118) is shifted in a direction transverse to the surface of the conveyor belt so as to increase the force exerted by the idler roller (18; 118) end on the conveyor belt surface for guiding the mistracking conveyor belt back toward a correct travel path; characterized in that the shiftable connection is configured to allow the idler roller (18; 118) to translate along a translation axis transverse to the one conveyor belt direction.
A process for producing an aqueous chlorous acid solution for use as disinfectant, comprising: reacting an aqueous sodium chlorate solution with a volume and concentration of sulfuric acid or aqueous solution thereof appropriate for maintaining pH of said aqueous solution at 2.3 to 3.4, thereby generating chloric acid, subsequently adding thereto at least an amount of hydrogen peroxide required for reducing said chloric acid to produce chlorous acid, and adding to the resulting aqueous solution at least one compound selected from the group consisting of inorganic acids and salts or a combination thereof, to adjust its pH in the range of 3.2 to 7.0, wherein said inorganic acids include carbonic acid, phosphoric acid, boric acid, or sulfuric acid, and wherein said inorganic salts include carbonates, hydroxides, phosphates, or borates. reacting an aqueous sodium chlorate solution with a volume and concentration of sulfuric acid or aqueous solution thereof appropriate for maintaining pH of said aqueous solution at 2.3 to 3.4, thereby generating chloric acid, subsequently adding thereto at least an amount of hydrogen peroxide required for reducing said chloric acid to produce chlorous acid, and adding to the resulting aqueous solution at least one compound selected from the group consisting of inorganic acids and salts or a combination thereof, to adjust its pH in the range of 3.2 to 7.0, wherein said inorganic acids include carbonic acid, phosphoric acid, boric acid, or sulfuric acid, and wherein said inorganic salts include carbonates, hydroxides, phosphates, or borates.
An atomization core, comprising a ceramic body , two heating elements , and four heating wires ; wherein the ceramic body comprises two vertical through holes ; and the two heating elements are disposed in the two vertical through holes , respectively; characterised in that: the four heating wires are fixed on a bottom end of the ceramic body ; the four heating wires extend along an axial direction of the first/second vertical through hole; the four heating wires are straight; and the four heating wires are disposed in parallel on the bottom end of the ceramic body ; wherein the four heating wires also function as the positive and negative leads of the first/second vertical through hole. the four heating wires are fixed on a bottom end of the ceramic body ; the four heating wires extend along an axial direction of the first/second vertical through hole; the four heating wires are straight; and the four heating wires are disposed in parallel on the bottom end of the ceramic body ; wherein the four heating wires also function as the positive and negative leads of the first/second vertical through hole.
A loudspeaker comprising: - an enclosure which comprises a reflex port terminating to a generally flat bottom of the enclosure , and - a stand , which is removably attached to the bottom of the enclosure so as to create a clearance (C) between the bottom and a surface supporting the loudspeaker , wherein the stand is shaped to create a free space between the reflex port opening(s) and the surface supporting the loudspeaker . - an enclosure which comprises a reflex port terminating to a generally flat bottom of the enclosure , and - a stand , which is removably attached to the bottom of the enclosure so as to create a clearance (C) between the bottom and a surface supporting the loudspeaker , wherein the stand is shaped to create a free space between the reflex port opening(s) and the surface supporting the loudspeaker .