mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: monitoring, by a first network component , incoming data packets , determining a rate of arrival of the incoming data packets and comparing the rate to a threshold; detecting, by the first network component, a change in a traffic profile of the incoming data packets if the determined rate is equal to or greater than the threshold; generating, by the first network component, in-band information (400-404) in response to the detected change in the traffic profile, the in-band information including the current determined rate of arrival of incoming packets; and transmitting, by the first network component, the in-band information with one or more data packets of the incoming data packets to one or more downstream network components (204-208), the in-band information being used by a second network component of the one or more downstream network components to adjust one or more corresponding settings for servicing the incoming data packets. monitoring, by a first network component , incoming data packets , determining a rate of arrival of the incoming data packets and comparing the rate to a threshold; detecting, by the first network component, a change in a traffic profile of the incoming data packets if the determined rate is equal to or greater than the threshold; generating, by the first network component, in-band information (400-404) in response to the detected change in the traffic profile, the in-band information including the current determined rate of arrival of incoming packets; and transmitting, by the first network component, the in-band information with one or more data packets of the incoming data packets to one or more downstream network components (204-208), the in-band information being used by a second network component of the one or more downstream network components to adjust one or more corresponding settings for servicing the incoming data packets.
A temporary storage system for storing containers, comprising: - advancement means for advancement of the containers along an advancement line ; - a storage comprising a conveyor which receives the containers coming from the advancement line and moves transversally to the advancement line ; - transfer means for transferring the containers from the advancement means to said storage ; said transfer means comprising a baffle which at least in one operating configuration extends transversally to the advancement line in order to intercept the containers and displace the containers onto the storage ; said baffle being movable along the advancement line ; characterised in that the system comprises: - synchronising means for synchronising a displacement of the baffle along the advancement line and of the conveyor which moves transversally to the advancement line ; - detecting means for detecting the presence of containers located on an initial portion of the conveyor which portion is located in proximity of the advancement line ; wherein the synchronisation means are adjusted as a function of the input of said detecting means . - advancement means for advancement of the containers along an advancement line ; - a storage comprising a conveyor which receives the containers coming from the advancement line and moves transversally to the advancement line ; - transfer means for transferring the containers from the advancement means to said storage ; said transfer means comprising a baffle which at least in one operating configuration extends transversally to the advancement line in order to intercept the containers and displace the containers onto the storage ; said baffle being movable along the advancement line ; characterised in that the system comprises: - synchronising means for synchronising a displacement of the baffle along the advancement line and of the conveyor which moves transversally to the advancement line ; - detecting means for detecting the presence of containers located on an initial portion of the conveyor which portion is located in proximity of the advancement line ; wherein the synchronisation means are adjusted as a function of the input of said detecting means . said baffle being movable along the advancement line ; characterised in that the system comprises: - synchronising means for synchronising a displacement of the baffle along the advancement line and of the conveyor which moves transversally to the advancement line ; - detecting means for detecting the presence of containers located on an initial portion of the conveyor which portion is located in proximity of the advancement line ; wherein the synchronisation means are adjusted as a function of the input of said detecting means . - synchronising means for synchronising a displacement of the baffle along the advancement line and of the conveyor which moves transversally to the advancement line ; - detecting means for detecting the presence of containers located on an initial portion of the conveyor which portion is located in proximity of the advancement line ; wherein the synchronisation means are adjusted as a function of the input of said detecting means .
A method for automating process development in a bioprocessing environment, the method comprising method steps: executing a first experiment run according to a set of parameters; retrieving a first real-time set of data of the experiment run while the experiment run is being executed; retrieving a second real-time set of data of an experiment run being executed in parallel, analysing the retrieved first real-time set of data and the second real-time set of data to determine an adjusted set of parameters; and, modifying , based on the analysis , parameters upon which the experiment run is being executed during execution of the run, wherein individual experiments being re-tasked to explore new parameter ranges such that the run continues to be executed according to the modified set of parameters. executing a first experiment run according to a set of parameters; retrieving a first real-time set of data of the experiment run while the experiment run is being executed; retrieving a second real-time set of data of an experiment run being executed in parallel, analysing the retrieved first real-time set of data and the second real-time set of data to determine an adjusted set of parameters; and, modifying , based on the analysis , parameters upon which the experiment run is being executed during execution of the run, wherein individual experiments being re-tasked to explore new parameter ranges such that the run continues to be executed according to the modified set of parameters.
A printer for printing plate-like print media, in particular for printing marker cards which comprise one or more markers for marking electrical appliances, connectors, cables or the like, wherein the printer comprises a printing unit with at least one print head for printing the print media in accordance with the inkjet printing principle, this printing unit being movable in and counter to a conveying direction , and a cleaning unit for cleaning the print heads , which comprises a cleansing device for extracting ink in an extraction direction from the print head , wherein the cleaning unit additionally comprises a driving device for moving the cleansing device into various operating positions (R, D, A, L, T, W), which include a servicing position (W), wherein the cleansing device can be moved with the driving device into the servicing position (W) in which it can be completely removed from the printer , characterised in that the cleansing device comprises a frame on which are arranged tooth sections (212a - d), which are each in meshing engagement with an output pinion (257a, b, 258a, b) of the driving device in order to move the cleansing device , and which are able to be brought out of engagement in the servicing position (W) to remove the cleansing device , and/or the cleaning unit comprises a collecting device with a collecting container for the ink, which cannot be moved with the cleansing device , but rather can be removed from the printer separately in an exchanging position (T) of the cleansing device , which is one of the operating positions.
Floor panel, wherein the floor panel is made rectangular and oblong and comprises a substrate and a top layer provided on this substrate ; wherein the substrate substantially consists of a thermoplastic material; wherein the substrate has a thickness of 2 to 10 millimeters; wherein the substrate forms at least half of the thickness of the floor panel ; wherein the top layer is at least composed of a print and a transparent thermoplastic layer situated above said print , the print being provided on a carrier sheet , which carrier sheet , together with the print , forms a printed synthetic film; wherein the floor panel , at least at two opposite edges (2-3), is provided with mechanical coupling means allowing that two of such floor panels can be coupled to each other, such that a locking is obtained in a vertical direction perpendicular to the plane of the coupled panels, as well as in a horizontal direction perpendicular to the coupled edge and in the plane of the floor panels; wherein the coupling means are realized as a tongue and groove bordered by an upper lip and a lower lip ; wherein the tongue and groove substantially are responsible for the locking in said vertical direction; wherein the tongue and groove are provided with locking parts (24-25), substantially responsible for the locking in said horizontal direction; and wherein the coupling means are substantially realized in said substrate ; the top layer of the floor panel comprises a back layer , which is situated between the print and the substrate and which comprises soft PVC; wherein the back layer extends above the center line determined by the tongue-in-groove coupling, - characterized in that the floor panel comprises means for limiting the bending by the own weight, said means at least comprising the measure wherein at least one layer of the floor panel has a density of more than 650 kilograms per cubic meter and is arranged between the top layer and the substrate , wherein the layer with a density of more than 650 kilograms per cubic meter comprises hard PVC .
A radio frequency system (100; 200; 300) configured for performing radio frequency based sensing in a sensing area , the radio frequency system (100; 200; 300) comprising: - a first node configured for transmitting a radio frequency signal , and - a radio frequency signal diffuser (40; 40a; 40b) configured for reflecting the radio frequency signal in multiple directions in order to generate additional paths for a multipath channel based on the radio frequency signal , wherein the radio frequency signal diffuser (40; 40a; 40b) and the first node are arranged in the radio frequency system (100; 200; 300) with a distance (50; 50a) to each other and are configured such that at least one of the additional paths of the multipath channel has sufficient transmission power for performing radio frequency based sensing in the sensing area , and wherein the radio frequency system (100; 200; 300) is configured for performing radio frequency based sensing based on at least two paths of the multipath channel including at least the one of the additional paths ; wherein the radio frequency system (100; 200; 300) includes a second node configured for performing radio frequency based sensing, characterized in that the second node includes the radio frequency signal diffuser (40; 40a; 40b), and wherein each of the nodes includes a radio frequency signal diffuser configured for reflecting the radio frequency signal in multiple directions in order to generate further additional paths for the multipath channel based on the radio frequency signal . - a first node configured for transmitting a radio frequency signal , and - a radio frequency signal diffuser (40; 40a; 40b) configured for reflecting the radio frequency signal in multiple directions in order to generate additional paths for a multipath channel based on the radio frequency signal , wherein the radio frequency signal diffuser (40; 40a; 40b) and the first node are arranged in the radio frequency system (100; 200; 300) with a distance (50; 50a) to each other and are configured such that at least one of the additional paths of the multipath channel has sufficient transmission power for performing radio frequency based sensing in the sensing area , and wherein the radio frequency system (100; 200; 300) is configured for performing radio frequency based sensing based on at least two paths of the multipath channel including at least the one of the additional paths ; wherein the radio frequency system (100; 200; 300) includes a second node configured for performing radio frequency based sensing, characterized in that the second node includes the radio frequency signal diffuser (40; 40a; 40b), and wherein each of the nodes includes a radio frequency signal diffuser configured for reflecting the radio frequency signal in multiple directions in order to generate further additional paths for the multipath channel based on the radio frequency signal .
A cell culture device comprising: a plurality of cell culture portions operable to respectively culture a plurality of cell culture units; a maturity evaluation portion operable to respectively evaluate maturity of the respective cell culture units present in the respective cell culture portions during operation of the cell culture device; a movement target cell determining portion operable to determine a cell culture unit that does not satisfy a predetermined condition as a target to be moved to another cell culture portion in a case where the cell culture unit of which maturity does not satisfy the predetermined condition among a plurality of cell culture units cultured in any one cell culture portion of the plurality of cell culture portions exists; and a cell moving portion operable to move the cell culture unit determined as the target to be moved to the other cell culture portion, wherein the movement target cell determining portion is operable to determine the cell culture unit as the target to be moved to another cell culture portion based on the sizes of the evaluation values, and wherein the movement target cell determining portion is operable to cause the maturity of the respective cell culture units to be even by determining the respective cell culture units cultured in the respective cell culture portions among a plurality of cell culture portions as the target to be moved. a plurality of cell culture portions operable to respectively culture a plurality of cell culture units; a maturity evaluation portion operable to respectively evaluate maturity of the respective cell culture units present in the respective cell culture portions during operation of the cell culture device; a movement target cell determining portion operable to determine a cell culture unit that does not satisfy a predetermined condition as a target to be moved to another cell culture portion in a case where the cell culture unit of which maturity does not satisfy the predetermined condition among a plurality of cell culture units cultured in any one cell culture portion of the plurality of cell culture portions exists; and a cell moving portion operable to move the cell culture unit determined as the target to be moved to the other cell culture portion, wherein the movement target cell determining portion is operable to determine the cell culture unit as the target to be moved to another cell culture portion based on the sizes of the evaluation values, and wherein the movement target cell determining portion is operable to cause the maturity of the respective cell culture units to be even by determining the respective cell culture units cultured in the respective cell culture portions among a plurality of cell culture portions as the target to be moved.
A control system for controlling the line pressure in a blood supply system in which a first pump is provided to pump blood from a reservoir via a primary passage at a flow rate and at a driving pressure toward a plurality of outlets, wherein one or more of the outlets are openable to permit flow through the outlet and closable to block flow through the outlet, wherein the control system comprises: a monitoring arrangement to determine a pressure value representative of a line pressure in the primary passage, and a controller responsive to the monitoring arrangement, the controller configured to control the first pump to maintain the line pressure in the primary passage above a pre-set level, and characterised in that the controller is configured to prevent opening of one or more outlets while there is not sufficient line pressure to avoid a negative line pressure when opening an outlet. a monitoring arrangement to determine a pressure value representative of a line pressure in the primary passage, and a controller responsive to the monitoring arrangement, the controller configured to control the first pump to maintain the line pressure in the primary passage above a pre-set level, and characterised in that the controller is configured to prevent opening of one or more outlets while there is not sufficient line pressure to avoid a negative line pressure when opening an outlet.
An electric power tool , comprising: a control system coupled to an electric power supply and an electric motor , the control system configured to cause an electric current to be supplied to the electric motor to drive a load, wherein: the control system includes a continuous power mode wherein the electric current is supplied up to a first level and a boost power mode wherein the electric current is supplied up to a second level, the second level being greater than the first level, and the control system is to switch from the continuous power mode to the boost power mode when the control system senses an increase in the load past a predetermined threshold, and is to switch from the boost power mode to the continuous power mode when the control system senses a decrease in the load; the control system is characterised in that it further has a cutback power mode wherein the electric current is supplied up to a third level that is less than the first level, and is to switch to the cutback power mode if the load on the electric motor does not decrease below the predetermined threshold before a predetermined time elapses. a control system coupled to an electric power supply and an electric motor , the control system configured to cause an electric current to be supplied to the electric motor to drive a load, wherein: the control system includes a continuous power mode wherein the electric current is supplied up to a first level and a boost power mode wherein the electric current is supplied up to a second level, the second level being greater than the first level, and the control system is to switch from the continuous power mode to the boost power mode when the control system senses an increase in the load past a predetermined threshold, and is to switch from the boost power mode to the continuous power mode when the control system senses a decrease in the load; the control system includes a continuous power mode wherein the electric current is supplied up to a first level and a boost power mode wherein the electric current is supplied up to a second level, the second level being greater than the first level, and the control system is to switch from the continuous power mode to the boost power mode when the control system senses an increase in the load past a predetermined threshold, and is to switch from the boost power mode to the continuous power mode when the control system senses a decrease in the load; the control system is characterised in that it further has a cutback power mode wherein the electric current is supplied up to a third level that is less than the first level, and is to switch to the cutback power mode if the load on the electric motor does not decrease below the predetermined threshold before a predetermined time elapses.
A method of producing a heparan sulfate having an anticoagulant activity, comprising (A) partially N-deacetylating a heparosan to produce an N-deacetylated heparosan, wherein said (A) is performed so that a residual rate of N-acetylated groups is 1% to 33%, (B) treating the N-deacetylated heparosan with heparinase III to cleave the N-deacetylated heparosan, and (C) sulfating the cleaved N-deacetylated heparosan to produce the heparan sulfate having the anticoagulant activity. (A) partially N-deacetylating a heparosan to produce an N-deacetylated heparosan, wherein said (A) is performed so that a residual rate of N-acetylated groups is 1% to 33%, (B) treating the N-deacetylated heparosan with heparinase III to cleave the N-deacetylated heparosan, and (C) sulfating the cleaved N-deacetylated heparosan to produce the heparan sulfate having the anticoagulant activity.
Method for the overproduction of an L-amino acid, characterized in that Corynebacterium humireducens is used in said method.
A method of manufacturing an air heating device , comprising the steps of: - preparing a support made of insulating material and extending along a main axis (A); - preparing at least one first resistance wire ; - preparing at least one second resistance wire ; - helically winding said at least one first resistance wire around said support so as to create at least part of a first winding (W1) extending along said main axis (A) with a first pitch (p1); - helically winding said at least one second resistance wire around said support so as to create at least part of a second winding (W2) extending along said main axis (A); characterised in that the second winding (W2) comprises: a first portion (W2') arranged in parallel, both electrically and physically, to the first winding (W1) and having a pitch corresponding to said first pitch (p1), so that there is a coil of the second winding (W2) between two subsequent coils of the first winding (W1); a second portion (W2") arranged electrically in series to the first portion (W2') and physically in series to the first winding (W1), wherein said second portion (W2") has a second pitch (p2) that is shorter than the first pitch (p1). - preparing a support made of insulating material and extending along a main axis (A); - preparing at least one first resistance wire ; - preparing at least one second resistance wire ; - helically winding said at least one first resistance wire around said support so as to create at least part of a first winding (W1) extending along said main axis (A) with a first pitch (p1); - helically winding said at least one second resistance wire around said support so as to create at least part of a second winding (W2) extending along said main axis (A); a first portion (W2') arranged in parallel, both electrically and physically, to the first winding (W1) and having a pitch corresponding to said first pitch (p1), so that there is a coil of the second winding (W2) between two subsequent coils of the first winding (W1); a second portion (W2") arranged electrically in series to the first portion (W2') and physically in series to the first winding (W1), wherein said second portion (W2") has a second pitch (p2) that is shorter than the first pitch (p1).