mhurhangee/patent-ind-claim-en huggingface dataset:
A method of loading a signature rule, comprising: sending (S201), by a network device, an upgrade request for a signature rule library to a cloud server, in a case that resources of the network device are sufficient currently, but signature rules that have been loaded in the network device currently do not meet requirements of functions that are undertaken by the network device currently due to the wrong selection of users; receiving (S101), by the network device, a signature rule library sent by the cloud server, wherein the signature rule library is a largest-scale signature rule library that contains all the signature rules that are already stored in the cloud server, and the signature rule library contains one or more signature rules, each of which is associated with corresponding device type configuration information, wherein the device type configuration information includes device type and device model; for each of the signature rules, determining (S102), by the network device, whether device type configuration information associated with the signature rule matches local device type configuration information of the network device; loading (S103), by the network device, the signature rule associated with the device type configuration information that matches the local device type configuration information of the network device; and discarding (S401), by the network device, the signature rule associated with the device type configuration information that does not match the local device type configuration information of the network device. sending (S201), by a network device, an upgrade request for a signature rule library to a cloud server, in a case that resources of the network device are sufficient currently, but signature rules that have been loaded in the network device currently do not meet requirements of functions that are undertaken by the network device currently due to the wrong selection of users; receiving (S101), by the network device, a signature rule library sent by the cloud server, wherein the signature rule library is a largest-scale signature rule library that contains all the signature rules that are already stored in the cloud server, and the signature rule library contains one or more signature rules, each of which is associated with corresponding device type configuration information, wherein the device type configuration information includes device type and device model; for each of the signature rules, determining (S102), by the network device, whether device type configuration information associated with the signature rule matches local device type configuration information of the network device; loading (S103), by the network device, the signature rule associated with the device type configuration information that matches the local device type configuration information of the network device; and discarding (S401), by the network device, the signature rule associated with the device type configuration information that does not match the local device type configuration information of the network device.
Powder formulation comprising (a) at least one insect repellent selected from N,N-diethyl-m-toluamide, ethyl 3-(N-butylacetamino)propionate, 1-(1-methylpropoxycarbonyl)-2-(2-hydroxyethyl)piperidine, citronella oil and andiroba oil and (b) magnesium hydroxide carbonate, where the magnesium hydroxide carbonate has a bulk density of at most about 200 g/l, the weight ratio of magnesium hydroxide carbonate to insect repellent in the formulation is 2:1 to 1:2 and the formulation comprises 5 to 20% by weight, based on the total weight of the formulation, of the at least one insect repellent.
A tunneling magnetoresistive (TMR) device comprising: a substrate; a first ferromagnetic layer on the substrate; a tunneling barrier layer consisting essentially of MgO on the first ferromagnetic layer; and a second ferromagnetic layer on the tunneling barrier layer; the second ferromagnetic layers is a free ferromagnetic multilayer having an in-plane magnetization direction substantially free to rotate in the presence of an external magnetic field, wherein the free ferromagnetic multilayer comprises: a first nanolayer in contact with the barrier layer and selected from Co, Fe, and an alloy consisting of Co and Fe; a second nanolayer in contact with the first nanolayer and selected from a FeN alloy, and a CoFeN alloy; and a boron-containing ferromagnetic layer on the second nanolayer, and the first ferromagnetic layer is a reference ferromagnetic layer having an in-plane magnetization direction substantially prevented from rotation in the presence of an external magnetic field. a substrate; a first ferromagnetic layer on the substrate; a tunneling barrier layer consisting essentially of MgO on the first ferromagnetic layer; and a second ferromagnetic layer on the tunneling barrier layer; the second ferromagnetic layers is a free ferromagnetic multilayer having an in-plane magnetization direction substantially free to rotate in the presence of an external magnetic field, wherein the free ferromagnetic multilayer comprises: a first nanolayer in contact with the barrier layer and selected from Co, Fe, and an alloy consisting of Co and Fe; a second nanolayer in contact with the first nanolayer and selected from a FeN alloy, and a CoFeN alloy; and a boron-containing ferromagnetic layer on the second nanolayer, and a first nanolayer in contact with the barrier layer and selected from Co, Fe, and an alloy consisting of Co and Fe; a second nanolayer in contact with the first nanolayer and selected from a FeN alloy, and a CoFeN alloy; and a boron-containing ferromagnetic layer on the second nanolayer, and the first ferromagnetic layer is a reference ferromagnetic layer having an in-plane magnetization direction substantially prevented from rotation in the presence of an external magnetic field.
A stream processing system, wherein a plurality of spout instances ingest data from one or more data sources and convert the data into an unbounded stream for an event stream processor, the stream processing system comprising: a first coordinating spout instance that is deployed at a first time, the first coordinating spout instance to instantiate a plurality of spout instances and deploy said spout instances after the first time; the plurality of spout instances to: connect to the one or more data sources, respectively, and ingest a respective portion of the data from its respective one of the one or more data sources; and output messages based on the ingested portions of the data; wherein the unbounded stream for the event stream processor is based on the messages, wherein the first coordinating spout instance is further to receive messages from the event stream processor and to distribute the messages amongst the plurality of spout instances based on content of the messages, wherein the messages comprise message completion notifications and message failure notifications generated by the event stream processor responsive to processing the unbounded stream, and wherein the messages are received over a single output interface of the event stream processor. a first coordinating spout instance that is deployed at a first time, the first coordinating spout instance to instantiate a plurality of spout instances and deploy said spout instances after the first time; the plurality of spout instances to: connect to the one or more data sources, respectively, and ingest a respective portion of the data from its respective one of the one or more data sources; and output messages based on the ingested portions of the data; connect to the one or more data sources, respectively, and ingest a respective portion of the data from its respective one of the one or more data sources; and output messages based on the ingested portions of the data; wherein the unbounded stream for the event stream processor is based on the messages, wherein the first coordinating spout instance is further to receive messages from the event stream processor and to distribute the messages amongst the plurality of spout instances based on content of the messages, wherein the messages comprise message completion notifications and message failure notifications generated by the event stream processor responsive to processing the unbounded stream, and wherein the messages are received over a single output interface of the event stream processor.
A system for distributing fluid in a surgical cassette , comprising: a partially deformable bladder partially disposed on a rigid surface , wherein the bladder forms a channel ; a first port and a second port in fluid communication with the channel ; wherein at least two pump head rollers are engaged with the at least partially deformable bladder , wherein a first of the least two pump head rollers is upstream of the second of the at least two pump head rollers in a first direction, characterized in that , along the first direction, the channel comprises a first portion and a second portion having a substantially uniform first dimension separated by a third portion having a second dimension that is larger than the first dimension, such that a fluid volume of the channel downstream of the first pump head roller increases incrementally to absorb fluid displaced upstream by the second pump head roller . a partially deformable bladder partially disposed on a rigid surface , wherein the bladder forms a channel ; a first port and a second port in fluid communication with the channel ; wherein at least two pump head rollers are engaged with the at least partially deformable bladder , wherein a first of the least two pump head rollers is upstream of the second of the at least two pump head rollers in a first direction, characterized in that , along the first direction, the channel comprises a first portion and a second portion having a substantially uniform first dimension separated by a third portion having a second dimension that is larger than the first dimension, such that a fluid volume of the channel downstream of the first pump head roller increases incrementally to absorb fluid displaced upstream by the second pump head roller . wherein at least two pump head rollers are engaged with the at least partially deformable bladder , wherein a first of the least two pump head rollers is upstream of the second of the at least two pump head rollers in a first direction, characterized in that , along the first direction, the channel comprises a first portion and a second portion having a substantially uniform first dimension separated by a third portion having a second dimension that is larger than the first dimension, such that a fluid volume of the channel downstream of the first pump head roller increases incrementally to absorb fluid displaced upstream by the second pump head roller .
Manually operated garden shears having a blade arrangement, which is formed in an opened state to receive cuttings and can be closed for a cutting procedure by the effect of a manual force on a handle arrangement, wherein a drive motor is available to switch on a motorised closing force, as an additional force to the manual force, to the blade arrangement, wherein at least one sensor is provided to determine a parameter of a cutting procedure, and an electronic control device is provided which controls the drive motor according to a certain value of the parameter and automatically switches on the motorised driving force, wherein the sensor is equipped to emit a sensor signal representing the parameter, wherein the sensor is equipped to emit a manual force sensor signal representing the manual force exerted by the user on the handle arrangement, characterised in that the garden shears further comprise an operating element reachable by a finger of a user's hand gripping a handle of the handle arrangement, with which the motorised closing force can be switched on.
A non-alcoholic functional beverage with a malt base or based on non-alcoholic beer or a water-aroma base enriched with amino acids and dietary fibre characterised in that it contains at the same time autolysate obtained from waste yeast slurry and dietary fibre obtained from fragmented brewers' grains.
Method for the production of a shoe by means of direct injection, onto the upper , of a sole made of polymer material comprising a midsole and a tread which covers a bottom surface of the midsole and which, in at least one zone thereof, is in direct contact with the upper , the method comprising the steps of: - providing a mould cavity , designed to receive the shoe part to be covered with the sole and comprising a base having an impression intended to form the outer surface of the tread ; - spraying a first polymer mixture (M) onto said impression of the base so as to form the tread ; - closing the mould cavity around the shoe so that the base with the tread sprayed previously is positioned relative to the upper with the space for the midsole and with the said zone of the tread placed in direct contact with the upper ; - injecting a second polymer mixture (S) inside said mould cavity after closing with the base , so as to form the midsole inside the said space for the midsole. - providing a mould cavity , designed to receive the shoe part to be covered with the sole and comprising a base having an impression intended to form the outer surface of the tread ; - spraying a first polymer mixture (M) onto said impression of the base so as to form the tread ; - closing the mould cavity around the shoe so that the base with the tread sprayed previously is positioned relative to the upper with the space for the midsole and with the said zone of the tread placed in direct contact with the upper ; - injecting a second polymer mixture (S) inside said mould cavity after closing with the base , so as to form the midsole inside the said space for the midsole.
-Tyre , intended to be mounted on a drop-centre rim of the 15° drop-centre type, comprising a radial carcass reinforcement , said tyre comprising a crown reinforcement comprising two working crown layers of reinforcing elements which are inserted between two skim coat layers of rubber compound and that are crossed from one layer to the next and make angles (α1, α2) of greater than 8° with the circumferential direction, said angles α1 and α2 being oriented one on each side of the circumferential direction, a layer C of rubber compound being positioned between at least the ends of said two working crown layers and at least one layer of circumferential reinforcing elements , the crown reinforcement being capped radially by a tread , said tread being connected to two beads by two sidewalls, wherein: - said two working crown layers and said at least one layer of circumferential reinforcing elements are the only ones present to form the crown reinforcement over at least 75% of the axial width of the crown reinforcement , - the reinforcing elements of the radially outermost working crown layer forming an angle (α2) with the circumferential direction that is greater in terms of absolute value than the angle (α1) formed by the reinforcing elements of the radially innermost working crown layer with the circumferential direction, - the absolute value of the difference between the absolute values of the angles (α2) and (α1) is greater than 7°, - the mean angle α satisfies the relationship: 13 + 131 * exp − L / 100 < α < 28 + 110 * exp − L / 100 , α being defined by the relationship α = Arctan((tan(|α1|)*tan(|α2|)) 1/2 ), L being the maximum width of the tyre measured in the axial direction and expressed in mm, characterized in that the secant elastic modulus at 10% elongation of the layer C is less than 8 MPa. - said two working crown layers and said at least one layer of circumferential reinforcing elements are the only ones present to form the crown reinforcement over at least 75% of the axial width of the crown reinforcement , - the reinforcing elements of the radially outermost working crown layer forming an angle (α2) with the circumferential direction that is greater in terms of absolute value than the angle (α1) formed by the reinforcing elements of the radially innermost working crown layer with the circumferential direction, - the absolute value of the difference between the absolute values of the angles (α2) and (α1) is greater than 7°, - the mean angle α satisfies the relationship: 13 + 131 * exp − L / 100 < α < 28 + 110 * exp − L / 100 , α being defined by the relationship α = Arctan((tan(|α1|)*tan(|α2|)) 1/2 ), L being the maximum width of the tyre measured in the axial direction and expressed in mm, characterized in that the secant elastic modulus at 10% elongation of the layer C is less than 8 MPa. α being defined by the relationship α = Arctan((tan(|α1|)*tan(|α2|)) 1/2 ), L being the maximum width of the tyre measured in the axial direction and expressed in mm, characterized in that the secant elastic modulus at 10% elongation of the layer C is less than 8 MPa.
A system , comprising: a wavefield engine comprising: a function engine to: map seismic data into a scattering potential using a dictionary composed of at least one of Green's functions for homogeneous reference media and Asymptote and Apex-Shifted Hyperbolic Radon Transform (AASHRT) functions; and map the seismic data independently for at least one of a temporal frequency and inline wavenumber; a data engine to: create a simulated array of seismic receivers; and reconstruct the wavefield based on synthetic seismic data associated with the simulated array and exploited properties of the scattering potential within an inversion scheme; and a decomposition engine to decompose the wavefield into upward and downward propagating constituents based on the mapping and the reconstructed wavefield. a wavefield engine comprising: a function engine to: map seismic data into a scattering potential using a dictionary composed of at least one of Green's functions for homogeneous reference media and Asymptote and Apex-Shifted Hyperbolic Radon Transform (AASHRT) functions; and map the seismic data independently for at least one of a temporal frequency and inline wavenumber; a data engine to: create a simulated array of seismic receivers; and reconstruct the wavefield based on synthetic seismic data associated with the simulated array and exploited properties of the scattering potential within an inversion scheme; and a function engine to: map seismic data into a scattering potential using a dictionary composed of at least one of Green's functions for homogeneous reference media and Asymptote and Apex-Shifted Hyperbolic Radon Transform (AASHRT) functions; and map the seismic data independently for at least one of a temporal frequency and inline wavenumber; map seismic data into a scattering potential using a dictionary composed of at least one of Green's functions for homogeneous reference media and Asymptote and Apex-Shifted Hyperbolic Radon Transform (AASHRT) functions; and map the seismic data independently for at least one of a temporal frequency and inline wavenumber; a data engine to: create a simulated array of seismic receivers; and reconstruct the wavefield based on synthetic seismic data associated with the simulated array and exploited properties of the scattering potential within an inversion scheme; and create a simulated array of seismic receivers; and reconstruct the wavefield based on synthetic seismic data associated with the simulated array and exploited properties of the scattering potential within an inversion scheme; and a decomposition engine to decompose the wavefield into upward and downward propagating constituents based on the mapping and the reconstructed wavefield.
A ready-to-use "running-in" fluid providing anti-corrosion properties in the "hottest" or "running-in" phase of an engine, which comprises ammonium bicarbonate in synergistic combination with at least one carboxylic acid, and further comprises, in a major amount, a solvent, wherein the solvent is selected from the group consisting of water, glycol or a combination of both, wherein the fluid has a pH in the range of from 8.0 to 11.0.
A tri-axial centrifuge apparatus for testing of petro-physical properties and gathering of geo-mechanical information, the tri-axial centrifuge apparatus comprising: a tri-axial sample holder located within a tri-axial test casing , the tri-axial test casing having a cell body , where the cell body has a bulkhead with an enlarged diameter extending outward to define a circumferential flange , the tri-axial sample holder having a piston assembly oriented to apply an axial force on a test sample ; a fluid sample holder , the fluid sample holder having a fluid sample ring and a fluid sample base , the fluid sample base being releasably joined to the circumferential flange so that the fluid sample base is joined to the cell body and the fluid sample ring is maintained in position relative to tri-axial test casing; a test sample fluid line extending from the tri-axial sample holder to a fluid reservoir ; a first fluid circulation line extending between the fluid reservoir and an isolation valve ; a second fluid circulation line extending between the isolation valve and the tri-axial sample holder; a centrifuge ; at least one electrical sensor ; at least one acoustic sensor ; and an x-ray instrument . a tri-axial sample holder located within a tri-axial test casing , the tri-axial test casing having a cell body , where the cell body has a bulkhead with an enlarged diameter extending outward to define a circumferential flange , the tri-axial sample holder having a piston assembly oriented to apply an axial force on a test sample ; a fluid sample holder , the fluid sample holder having a fluid sample ring and a fluid sample base , the fluid sample base being releasably joined to the circumferential flange so that the fluid sample base is joined to the cell body and the fluid sample ring is maintained in position relative to tri-axial test casing; a test sample fluid line extending from the tri-axial sample holder to a fluid reservoir ; a first fluid circulation line extending between the fluid reservoir and an isolation valve ; a second fluid circulation line extending between the isolation valve and the tri-axial sample holder; a centrifuge ; at least one electrical sensor ; at least one acoustic sensor ; and an x-ray instrument .
A computer-implemented method for transmitting notifications to a driver of a vehicle , the method comprising: determining a first mental load (530; 630) on the driver based on sensor data; determining a second mental load on the driver associated with a first notification (542, 544; 642, 644); determining, based on the first mental load (530; 630) and the second mental load, that a mental load threshold (240; 522; 622) will be exceeded; modifying (712; 716) at least one characteristic of the first notification to generate a modified notification; and transmitting the modified notification to one or more output devices , wherein the one or more output devices output the modified notification within the vehicle . determining a first mental load (530; 630) on the driver based on sensor data; determining a second mental load on the driver associated with a first notification (542, 544; 642, 644); determining, based on the first mental load (530; 630) and the second mental load, that a mental load threshold (240; 522; 622) will be exceeded; modifying (712; 716) at least one characteristic of the first notification to generate a modified notification; and transmitting the modified notification to one or more output devices , wherein the one or more output devices output the modified notification within the vehicle .