mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a computing device serving as a host computer for operating virtual machines, VMs (1111-1114, VM A, VM B, VM C), executed by a set of processing units of the host computer , the method comprising: at a hypervisor of the host computer : receiving a firewall rule from a network manager that provides firewall rules to a plurality of host computers ; inserting a node that corresponds to the received firewall rule into a search tree structure constructed by the hypervisor ; using a filter for a particular VM (1111, VM A) to identify a set of firewall rules that are relevant to the particular VM (1111, VM A) from the search tree structure based on the IP address of the particular VM, , wherein each respective VM of a set of VMs (VM A, VM B, VM C) operating on the host computer has a respective filter used to identify a respective set of firewall rules relevant to the respective VM, wherein the filters are included in the hypervisor ; at the filter for the particular VM, caching the identified relevant rules and only using the search tree structure to update the cached rules when the hypervisor receives a firewall configuration message from the network manager; and at the hypervisor , performing firewall operations for the particular VM (1111, VM A) by applying the identified relevant rules . at a hypervisor of the host computer : receiving a firewall rule from a network manager that provides firewall rules to a plurality of host computers ; inserting a node that corresponds to the received firewall rule into a search tree structure constructed by the hypervisor ; using a filter for a particular VM (1111, VM A) to identify a set of firewall rules that are relevant to the particular VM (1111, VM A) from the search tree structure based on the IP address of the particular VM, , wherein each respective VM of a set of VMs (VM A, VM B, VM C) operating on the host computer has a respective filter used to identify a respective set of firewall rules relevant to the respective VM, wherein the filters are included in the hypervisor ; receiving a firewall rule from a network manager that provides firewall rules to a plurality of host computers ; inserting a node that corresponds to the received firewall rule into a search tree structure constructed by the hypervisor ; using a filter for a particular VM (1111, VM A) to identify a set of firewall rules that are relevant to the particular VM (1111, VM A) from the search tree structure based on the IP address of the particular VM, , wherein each respective VM of a set of VMs (VM A, VM B, VM C) operating on the host computer has a respective filter used to identify a respective set of firewall rules relevant to the respective VM, wherein the filters are included in the hypervisor ; at the filter for the particular VM, caching the identified relevant rules and only using the search tree structure to update the cached rules when the hypervisor receives a firewall configuration message from the network manager; and at the hypervisor , performing firewall operations for the particular VM (1111, VM A) by applying the identified relevant rules .
A method for treating tobacco material, the method comprising: o fermenting the tobacco material to obtain treated tobacco material, including: ▪ incubating the tobacco material under anaerobic conditions; ▪ applying a pressure to the tobacco material comprised between 1000 kilograms per square meter and 4000 kilograms per square meter; ▪ keeping the moisture content of the tobacco material comprised between 25 percent in weight and 40 percent in weight of the total weight of the tobacco material; o wherein the fermenting lasts at least two months. o fermenting the tobacco material to obtain treated tobacco material, including: ▪ incubating the tobacco material under anaerobic conditions; ▪ applying a pressure to the tobacco material comprised between 1000 kilograms per square meter and 4000 kilograms per square meter; ▪ keeping the moisture content of the tobacco material comprised between 25 percent in weight and 40 percent in weight of the total weight of the tobacco material; ▪ incubating the tobacco material under anaerobic conditions; ▪ applying a pressure to the tobacco material comprised between 1000 kilograms per square meter and 4000 kilograms per square meter; ▪ keeping the moisture content of the tobacco material comprised between 25 percent in weight and 40 percent in weight of the total weight of the tobacco material; o wherein the fermenting lasts at least two months.
A vacuum pumping system comprising a pumping line arrangement , for use in a semiconductor fabrication assembly , said pumping line arrangement comprising: a chamber connecting line fluidly connectable to a process chamber forming part of a semiconductor fabrication tool within which at least two process steps are performed; and a valve module fluidly connected to the chamber connecting line, the valve module splitting the chamber connecting line into respective first and second pumping lines , the first pumping line being intended to carry a first process step exhaust flow and the second pumping line being intended to carry a second process step exhaust flow which is incompatible with the first process step exhaust flow, wherein at least one of the first pumping line or the second pumping line including fluidly connected therewithin a pre-abatement module configured to remove one or more incompatible process step exhaust constituents from the process step exhaust flow intended to be carried by the other pumping line and, the vacuum pumping system being characterized in that it comprises a first primary abatement module and a second primary abatement module and the first pumping line is fluidly connected with the first primary abatement module which is configured to abate the first process flow, and the second pumping line is fluidly connected with the second primary abatement module which is configured to abate the second process flow, each of the primary abatement modules being located downstream of the corresponding upstream pre-abatement module. a chamber connecting line fluidly connectable to a process chamber forming part of a semiconductor fabrication tool within which at least two process steps are performed; and a valve module fluidly connected to the chamber connecting line, the valve module splitting the chamber connecting line into respective first and second pumping lines , the first pumping line being intended to carry a first process step exhaust flow and the second pumping line being intended to carry a second process step exhaust flow which is incompatible with the first process step exhaust flow, wherein at least one of the first pumping line or the second pumping line including fluidly connected therewithin a pre-abatement module configured to remove one or more incompatible process step exhaust constituents from the process step exhaust flow intended to be carried by the other pumping line and, the vacuum pumping system being characterized in that it comprises a first primary abatement module and a second primary abatement module and the first pumping line is fluidly connected with the first primary abatement module which is configured to abate the first process flow, and the second pumping line is fluidly connected with the second primary abatement module which is configured to abate the second process flow, each of the primary abatement modules being located downstream of the corresponding upstream pre-abatement module.
A method for performing, by a user equipment, UE , access attempt to a cell in a wireless communication system, the method comprising: receiving barring information from a base station, BS , of the cell; triggering (S1020) the access attempt to the cell, based on access category for an NR system; mapping (S1040) the access category for the NR system to establishment cause for a long-term evolution, LTE, system based on a mapping table; performing access attempt to the cell based on the barring information; and based on the access attempt to the cell being allowed for the UE , transmitting a message requesting establishment of a radio resource control, RRC, connection, the message comprising the establishment cause mapped from the access category for the NR system, to the BS of the cell, wherein the access category for the NR system is mapped, by a non-access stratum, NAS, layer of the UE , to the establishment cause for the LTE system, based on the mapping table. receiving barring information from a base station, BS , of the cell; triggering (S1020) the access attempt to the cell, based on access category for an NR system; mapping (S1040) the access category for the NR system to establishment cause for a long-term evolution, LTE, system based on a mapping table; performing access attempt to the cell based on the barring information; and based on the access attempt to the cell being allowed for the UE , transmitting a message requesting establishment of a radio resource control, RRC, connection, the message comprising the establishment cause mapped from the access category for the NR system, to the BS of the cell, wherein the access category for the NR system is mapped, by a non-access stratum, NAS, layer of the UE , to the establishment cause for the LTE system, based on the mapping table.
Rapid fixation for spectacle side-piece comprising a first element equipped with a flexible strip configured to engage with a window positioned on a second element where the first element comprises means for guiding and limiting deformation of the flexible strip , characterised by the fact that the guiding means are constituted of a transversal channel to the first element configured to receive a rod connected to the flexible strip so as to laterally guide the bending deformation of the flexible strip and in that the rod is provided at the free end thereof of a protrusion configured to limit the articulation of the rod through the channel in opening.
An automated calibration monitoring system comprising: a plurality of storage locations configured to store inventory items including a calibrated inventory item; a database storing information on inventory items, including the calibrated inventory item, associated with the automated calibration monitoring system and configured for storage in the plurality of storage locations of the automated calibration monitoring system , wherein the database further stores a calibration parameter value for the calibrated inventory item; and a processor configured to, upon the calibrated inventory item being issued from or returned to the automated calibration monitoring system , compare a calibration measurement of the calibrated inventory item with the calibration parameter value for the calibrated inventory item, wherein the processor selectively authorizes the issue or return of the calibrated inventory items from a storage location of the automated calibration monitoring system according to a result of the comparison of the calibration measurement of the calibrated inventory item with the calibration parameter value for the calibrated inventory item, wherein, upon determining that the calibrated inventory item is out of calibration, the automated calibration monitoring system is configured to disable or block issue of the calibrated inventory item from the automated calibration monitoring system . a plurality of storage locations configured to store inventory items including a calibrated inventory item; a database storing information on inventory items, including the calibrated inventory item, associated with the automated calibration monitoring system and configured for storage in the plurality of storage locations of the automated calibration monitoring system , wherein the database further stores a calibration parameter value for the calibrated inventory item; and a processor configured to, upon the calibrated inventory item being issued from or returned to the automated calibration monitoring system , compare a calibration measurement of the calibrated inventory item with the calibration parameter value for the calibrated inventory item, wherein the processor selectively authorizes the issue or return of the calibrated inventory items from a storage location of the automated calibration monitoring system according to a result of the comparison of the calibration measurement of the calibrated inventory item with the calibration parameter value for the calibrated inventory item, wherein, upon determining that the calibrated inventory item is out of calibration, the automated calibration monitoring system is configured to disable or block issue of the calibrated inventory item from the automated calibration monitoring system .
A header for a combine harvester comprising a cutter bar and a rotatable reel , the reel comprising a central tube rotatable about a central axis and supported by two lateral supports , the reel comprising a first and second reel portion , each reel portion comprising two or more transverse members mounted on the central tube and a plurality of tine bars with tines attached thereto, the tine bars being coupled to the transverse members at regular intervals along the circumference of the members, the reel having an upper half above the central axis and a lower half below the central axis , characterized in that the central tube is further supported by at least one intermediate support , and that the first and second reel portion are on either side of the intermediate support , and the two transverse members on either side of the intermediate support , belonging respectively to the first and second reel portion , are configured to be maintained in a slanted position with respect to the intermediate support during rotation of the reel, the slanted positions being such that the two slanted members are closer together in the lower half of the reel than in the upper half of the reel and wherein the tine bars of both reel portions are pivotably connected to the slanted members so that the rotation of the reel generates a reciprocating motion of at least a portion of the tine bars in the axial direction of the reel .
An electrochemical cell comprising; i. a fuel electrode for oxidizing a fuel; ii. an oxidant electrode for reducing an oxidant; iii. an ionically conductive medium for conducting ions between the fuel and oxidant electrodes to support electrochemical reactions at the fuel and oxidant electrode; wherein the ionically conductive medium comprises at least one active additive for enhancing at least one electrochemical reaction within the cell; a casing enclosing the active additive therein, at least a part of the casing being corrodible or dissolvable in the ionically conductive medium to expose and release the active additive to the ionically conductive medium to increase a concentration of the active additive depleted in the ionically conductive medium. i. a fuel electrode for oxidizing a fuel; ii. an oxidant electrode for reducing an oxidant; iii. an ionically conductive medium for conducting ions between the fuel and oxidant electrodes to support electrochemical reactions at the fuel and oxidant electrode;
Method for calibrating a digital optical imaging system, which comprises at least one motor-driven or encoded zoom system and an image sensor, comprising the following steps: - placing a reference object under the imaging system, the reference object having a reference pattern with fixedly defined reference points; - selecting and storing a zoom setting of the zoom system in a reference table; - recording a reference image by imaging the reference object on the image sensor; - dividing the reference image into at least three colour channel reference images R R , R G , R B ; - fitting an ideal image corresponding to the reference pattern into the reference image in terms of relative position and orientation and ascertaining an image centre by virtue of displacing and rotating the ideal image until the smallest deviation is obtained between the ideal image and the reference image; subsequently - ascertaining a relative position error vector for n reference points of the reference object in each of the colour channel reference images by virtue of determining relative position deviations from the ideal image in terms of height and width; - storing the ascertained relative position error vectors in the reference table; - repeating the aforementioned steps for at least three different zoom settings. - placing a reference object under the imaging system, the reference object having a reference pattern with fixedly defined reference points; - selecting and storing a zoom setting of the zoom system in a reference table; - recording a reference image by imaging the reference object on the image sensor; - dividing the reference image into at least three colour channel reference images R R , R G , R B ; - fitting an ideal image corresponding to the reference pattern into the reference image in terms of relative position and orientation and ascertaining an image centre by virtue of displacing and rotating the ideal image until the smallest deviation is obtained between the ideal image and the reference image; subsequently - ascertaining a relative position error vector for n reference points of the reference object in each of the colour channel reference images by virtue of determining relative position deviations from the ideal image in terms of height and width; - storing the ascertained relative position error vectors in the reference table; - repeating the aforementioned steps for at least three different zoom settings.
Valve assembly having a housing through which at least one fluid path leads, and having a closure unit which is assigned to the fluid path , wherein the closure unit has a closure element which is mounted so as to be axially displaceable in relation to a longitudinal central axis of the closure unit , wherein a flow cross section of the fluid path is closed in a first sliding position of the closure element , and is released in a second sliding position of the closure element , and wherein a restoring spring is held between the closure element on one side and a support element on the other side so as to be axially pre-loaded in such a manner that the closure element , proceeding from the first sliding position, is axially displaceable counter to a spring force of the restoring spring , wherein the support element is mounted so as to be axially displaceable, wherein a spring element which is held so as to be axially pre-loaded between the support element on the one side and the housing on the other side is provided, and wherein a spring rate of the spring element is greater than a spring rate of the restoring spring , characterized in that a further fluid path and a further closure unit assigned to the further fluid path are provided, wherein the further closure unit has a further support element , wherein the spring element is held so as to be axially pre-loaded between the support element and the further support element on the one side and the housing on the other side.
A display device for an electrically driven motor scooter , featuring the following: - a first display device, i.e., a flat screen , having a first resolution; - a second electric or electronic display device having a second resolution, wherein the second resolution preferably is significantly lower than the first resolution, wherein the display device is configured to display information based on a measured value and/or a variable at the same time on the first display device and the second display device, characterized in that the first resolution is by at least 70 % higher than the second resolution, and wherein the first display device comprises an LCD flat screen, a plasma flat screen or an OLED flat screen having a resolution of more than 1000 pixels. - a first display device, i.e., a flat screen , having a first resolution; - a second electric or electronic display device having a second resolution, wherein the second resolution preferably is significantly lower than the first resolution, the display device is configured to display information based on a measured value and/or a variable at the same time on the first display device and the second display device, characterized in that the first resolution is by at least 70 % higher than the second resolution, and wherein the first display device comprises an LCD flat screen, a plasma flat screen or an OLED flat screen having a resolution of more than 1000 pixels.
A final energy storage device product, comprising: a container; a first electrode; a second electrode; a separator between the first electrode and the second electrode, wherein the first electrode, second electrode and separator are within the container; and an electrolyte within the container comprising a salt concentration between 0.6 moles/L (M) to 0.95M, and acetonitrile; wherein the electrolyte comprises a mass of electrolyte configured to be at least 100 % of a saturation quantity and less than or equal to 104 % of the saturation quantity of electrolyte, wherein the saturation quantity of electrolyte is the amount of electrolyte sufficient to fully saturate the accessible spaces of the first electrode, the second electrode and the separator. a container; a first electrode; a second electrode; a separator between the first electrode and the second electrode, wherein the first electrode, second electrode and separator are within the container; and an electrolyte within the container comprising a salt concentration between 0.6 moles/L (M) to 0.95M, and acetonitrile; wherein the electrolyte comprises a mass of electrolyte configured to be at least 100 % of a saturation quantity and less than or equal to 104 % of the saturation quantity of electrolyte, wherein the saturation quantity of electrolyte is the amount of electrolyte sufficient to fully saturate the accessible spaces of the first electrode, the second electrode and the separator.
A mesh receiver for a very small aperture terminal ,VSAT, that performs communications in a satellite-based network, the mesh receiver comprising: a receiver configured to receive a plurality of TDMA mesh carriers in the network in plural channels, wherein each of the mesh carriers has a frequency offset and a start time that is unknown to the mesh receiver; circuitry configured to blindly derive a receiver gain, the frequency offset, and the start time from the received mesh carriers; and a demodulator configured to simultaneously demodulate the received TDMA mesh carriers and generates demodulated bursts for packets of the communications based on the blindly derived gain, frequency offset, and start time. a receiver configured to receive a plurality of TDMA mesh carriers in the network in plural channels, wherein each of the mesh carriers has a frequency offset and a start time that is unknown to the mesh receiver; circuitry configured to blindly derive a receiver gain, the frequency offset, and the start time from the received mesh carriers; and a demodulator configured to simultaneously demodulate the received TDMA mesh carriers and generates demodulated bursts for packets of the communications based on the blindly derived gain, frequency offset, and start time.