mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling cognitive functions in a network, the cognitive functions each comprising: a learning module adapted to observe characteristics of the network, an inference module adapted to conclude, from the characteristics observed by the learning module, on a behavior of the network resulting from the observed characteristics, and an action module adapted to plan, from the behavior of the network concluded by the inference module, specific actions to affect an overall behavior of the network the method comprising: observing an exceptional state in the network being either an anomalous behavior profile of the network or a special event in the network which produces unusual data; and upon so observing, halting operation of the learning module independently of controlling the operation of the inference module and the action module, wherein the halting of the operation of the learning module comprises setting a learning state of the learning module to a first predetermined value and controlling the operation of the inference module comprises setting an inference state of the inference module and an action state of the action module independently from the setting of the learning state of the learning module. a learning module adapted to observe characteristics of the network, an inference module adapted to conclude, from the characteristics observed by the learning module, on a behavior of the network resulting from the observed characteristics, and an action module adapted to plan, from the behavior of the network concluded by the inference module, specific actions to affect an overall behavior of the network the method comprising: observing an exceptional state in the network being either an anomalous behavior profile of the network or a special event in the network which produces unusual data; and upon so observing, halting operation of the learning module independently of controlling the operation of the inference module and the action module, wherein the halting of the operation of the learning module comprises setting a learning state of the learning module to a first predetermined value and controlling the operation of the inference module comprises setting an inference state of the inference module and an action state of the action module independently from the setting of the learning state of the learning module. observing an exceptional state in the network being either an anomalous behavior profile of the network or a special event in the network which produces unusual data; and upon so observing, halting operation of the learning module independently of controlling the operation of the inference module and the action module, wherein the halting of the operation of the learning module comprises setting a learning state of the learning module to a first predetermined value and controlling the operation of the inference module comprises setting an inference state of the inference module and an action state of the action module independently from the setting of the learning state of the learning module.
An article of footwear (10; 110; 210; 310; 410; 510) comprising: a sole structure ; an upper secured to the sole structure ; a plurality of tensioning cables having proximal ends fixed to at least one of the upper or the sole structure and extending out of the upper ; a strap having a proximal end connected to distal ends of tensioning cables of the plurality of tensioning cables , and the strap having a distal end releasably securable to the upper to tighten the tensioning cables ; and characterized in that a webbed spacer secured to the plurality of tensioning cables , the webbed spacer extending between adjacent ones of the plurality of tensioning cables , the adjacent ones of the plurality of tensioning cables spaced apart from one another by the webbed spacer . a sole structure ; an upper secured to the sole structure ; a plurality of tensioning cables having proximal ends fixed to at least one of the upper or the sole structure and extending out of the upper ; a strap having a proximal end connected to distal ends of tensioning cables of the plurality of tensioning cables , and the strap having a distal end releasably securable to the upper to tighten the tensioning cables ; and characterized in that a webbed spacer secured to the plurality of tensioning cables , the webbed spacer extending between adjacent ones of the plurality of tensioning cables , the adjacent ones of the plurality of tensioning cables spaced apart from one another by the webbed spacer .
A single-dose capsule for galvanizing baths characterised in that it comprises: a closed container that is made of low-melting metal material and has an overall volume of less than 2,5 dm 3 ; and a given quantity of galvanizing-bath additive contained within said closed container .
An elongate mounting structure , for forming a mounting unit , the elongate mounting structure being elongated along a longitudinal direction (X102), wherein the elongate mounting structure comprises: - an elongate main member comprising: - an elongate mounting member , at least one longitudinal end of the elongate mounting member being configured to receive an extension mechanism to mount an architectural covering between two opposing mounting surfaces ; and - a headrail member arranged above the elongate mounting member , the headrail member being configured to receive a drive assembly for operating a covering for an architectural opening ; and - an overhang part projecting from the elongate main member in a lateral direction (Y102) that is perpendicular to the longitudinal direction (XI02), the overhang part comprising an attaching section for attaching said covering to the overhang part such that the covering can extend substantially vertically in front of at least part of the elongate main member when the mounting unit is mounted between the opposing mounting surfaces . - an elongate main member comprising: - an elongate mounting member , at least one longitudinal end of the elongate mounting member being configured to receive an extension mechanism to mount an architectural covering between two opposing mounting surfaces ; and - a headrail member arranged above the elongate mounting member , the headrail member being configured to receive a drive assembly for operating a covering for an architectural opening ; and - an overhang part projecting from the elongate main member in a lateral direction (Y102) that is perpendicular to the longitudinal direction (XI02), the overhang part comprising an attaching section for attaching said covering to the overhang part such that the covering can extend substantially vertically in front of at least part of the elongate main member when the mounting unit is mounted between the opposing mounting surfaces . - an elongate mounting member , at least one longitudinal end of the elongate mounting member being configured to receive an extension mechanism to mount an architectural covering between two opposing mounting surfaces ; and - a headrail member arranged above the elongate mounting member , the headrail member being configured to receive a drive assembly for operating a covering for an architectural opening ; and - an overhang part projecting from the elongate main member in a lateral direction (Y102) that is perpendicular to the longitudinal direction (XI02), the overhang part comprising an attaching section for attaching said covering to the overhang part such that the covering can extend substantially vertically in front of at least part of the elongate main member when the mounting unit is mounted between the opposing mounting surfaces .
An information communication method of transmitting a signal using a change in luminance, the information communication method comprising: determining (SK81) a light and dark time sequence pattern of the change in luminance, by modulating a first signal to be transmitted; transmitting (SK82) the first signal as the light and dark time sequence pattern, by all of a plurality of light emitting elements included in a light emitter changing in luminance in according to the determined light and dark time sequence pattern of the change in luminance; determining a spatial location luminance pattern of ON/OFF states of the plurality of light emitting elements by modulating a second signal to be transmitted, and transmitting (SK83) the second signal as the spatial location luminance pattern, by each of the plurality of light emitting elements emitting light with one of ON state or OFF state according to the determined spatial location luminance pattern. determining (SK81) a light and dark time sequence pattern of the change in luminance, by modulating a first signal to be transmitted; transmitting (SK82) the first signal as the light and dark time sequence pattern, by all of a plurality of light emitting elements included in a light emitter changing in luminance in according to the determined light and dark time sequence pattern of the change in luminance; determining a spatial location luminance pattern of ON/OFF states of the plurality of light emitting elements by modulating a second signal to be transmitted, and transmitting (SK83) the second signal as the spatial location luminance pattern, by each of the plurality of light emitting elements emitting light with one of ON state or OFF state according to the determined spatial location luminance pattern.
Composition comprising a) one or more compounds comprising an allylic hydrogen atom; b) an antioxidant system obtainable by an extraction method comprising the steps of i) contacting an apolar extractant with a combination of plant powders to prepare an extract, wherein the combination of plant powders comprises: ginger powder having a particle size of less than 800 μm, sage powder having a particle size of less than 500 μm, rosemary powder having a particle size of less than 500 μm, wherein the ginger powder (G), the sage powder (S), and the rosemary powder (R) are present in a weight ratio of G : S : R = 1 to 4 : 1 to 3 : 1 to 3; and ii) optionally separating the extract from at least part of the residue of the plant powders. a) one or more compounds comprising an allylic hydrogen atom; b) an antioxidant system obtainable by an extraction method comprising the steps of i) contacting an apolar extractant with a combination of plant powders to prepare an extract, wherein the combination of plant powders comprises: ginger powder having a particle size of less than 800 μm, sage powder having a particle size of less than 500 μm, rosemary powder having a particle size of less than 500 μm, wherein the ginger powder (G), the sage powder (S), and the rosemary powder (R) are present in a weight ratio of G : S : R = 1 to 4 : 1 to 3 : 1 to 3; and ii) optionally separating the extract from at least part of the residue of the plant powders. i) contacting an apolar extractant with a combination of plant powders to prepare an extract, wherein the combination of plant powders comprises: ginger powder having a particle size of less than 800 μm, sage powder having a particle size of less than 500 μm, rosemary powder having a particle size of less than 500 μm, wherein the ginger powder (G), the sage powder (S), and the rosemary powder (R) are present in a weight ratio of G : S : R = 1 to 4 : 1 to 3 : 1 to 3; and ginger powder having a particle size of less than 800 μm, sage powder having a particle size of less than 500 μm, rosemary powder having a particle size of less than 500 μm, wherein the ginger powder (G), the sage powder (S), and the rosemary powder (R) are present in a weight ratio of G : S : R = 1 to 4 : 1 to 3 : 1 to 3; and ii) optionally separating the extract from at least part of the residue of the plant powders.
An in-vehicle warning system to generate a warning based on environmental conditions sensed in a vehicle, the in-vehicle warning system comprising: a vehicle monitoring module to: i determine whether an operator of the vehicle is present; ii determine whether a non-operator occupant is present in the vehicle; and iii determine whether environmental conditions sensed within the vehicle satisfy a reference condition threshold; and an emergency action module to determine whether an override is activated and perform an emergency action in response to: i a determination that the environmental conditions sensed within the vehicle satisfy the reference condition threshold; ii a determination that the operator of the vehicle is not present; iii a determination that the non-operator occupant is present in the vehicle and iv a determination that the override is not activated; wherein the in-vehicle warning system is configured to ignore activation of the override in response to determining that certain environmental conditions sense within the vehicle pose a danger to any occupants present in the vehicle. a vehicle monitoring module to: i determine whether an operator of the vehicle is present; ii determine whether a non-operator occupant is present in the vehicle; and iii determine whether environmental conditions sensed within the vehicle satisfy a reference condition threshold; and i determine whether an operator of the vehicle is present; ii determine whether a non-operator occupant is present in the vehicle; and iii determine whether environmental conditions sensed within the vehicle satisfy a reference condition threshold; and an emergency action module to determine whether an override is activated and perform an emergency action in response to: i a determination that the environmental conditions sensed within the vehicle satisfy the reference condition threshold; ii a determination that the operator of the vehicle is not present; iii a determination that the non-operator occupant is present in the vehicle and iv a determination that the override is not activated; i a determination that the environmental conditions sensed within the vehicle satisfy the reference condition threshold; ii a determination that the operator of the vehicle is not present; iii a determination that the non-operator occupant is present in the vehicle and iv a determination that the override is not activated; wherein the in-vehicle warning system is configured to ignore activation of the override in response to determining that certain environmental conditions sense within the vehicle pose a danger to any occupants present in the vehicle.
A test circuit, comprising: a first input bus, a second input bus, a first output bus, a second output bus, a first dynamic routing unit DRU, and a first register, wherein the first input bus is configured to be coupled to an input channel of a tested circuit through the first DRU, and the first output bus is configured to be coupled to an output channel of the tested circuit through the first DRU; the second input bus is configured to be coupled to the second output bus through the first register; and in a clock cycle: the first DRU is configured to output test excitation from the first input bus to the input channel, and output a test response from the output channel to the first output bus; or the first DRU is configured to output data from the first input bus to the first output bus; and the first register is configured to output data from the second input bus to the second output bus. the first input bus is configured to be coupled to an input channel of a tested circuit through the first DRU, and the first output bus is configured to be coupled to an output channel of the tested circuit through the first DRU; the second input bus is configured to be coupled to the second output bus through the first register; and in a clock cycle: the first DRU is configured to output test excitation from the first input bus to the input channel, and output a test response from the output channel to the first output bus; or the first DRU is configured to output data from the first input bus to the first output bus; and the first register is configured to output data from the second input bus to the second output bus.
Installation for preparing bead wires intended for the reinforcement of a tyre, such as a pneumatic tyre, said installation comprising: - a fetching station , arranged to fetch a core which forms a ring having a main axis (Z3), said core being, to this end, kept closed on itself at a join called "core join" which occupies, in azimuth about said main axis (Z3), a first angular sector (S6), - a braiding station , arranged to interleave at least one wire, called "braid wire" , helically about the core , over at least one turn about the main axis (Z3), by providing, in azimuth about the main axis (Z3), a second angular sector (S8) which is intended to accommodate a join, called "braid join" , between a first end section of the braid wire and a second end section of the braid wire in order to keep said braid wire closed on itself about said main axis (Z3), said installation being characterized in that it comprises an azimuth checking system which comprises: - a detection device arranged to detect on the core a registration element with respect to which the position of the first angular sector (S6) is known, - and a positioning device which makes it possible to adapt the azimuthal orientation of said core , with reference to said registration element , for the implementation of said core on the braiding station , so that the second angular sector (S8) provided by the braiding station for the braid join does not overlap the first angular sector (S6) occupied by the core join . - a fetching station , arranged to fetch a core which forms a ring having a main axis (Z3), said core being, to this end, kept closed on itself at a join called "core join" which occupies, in azimuth about said main axis (Z3), a first angular sector (S6), - a braiding station , arranged to interleave at least one wire, called "braid wire" , helically about the core , over at least one turn about the main axis (Z3), by providing, in azimuth about the main axis (Z3), a second angular sector (S8) which is intended to accommodate a join, called "braid join" , between a first end section of the braid wire and a second end section of the braid wire in order to keep said braid wire closed on itself about said main axis (Z3), - a detection device arranged to detect on the core a registration element with respect to which the position of the first angular sector (S6) is known, - and a positioning device which makes it possible to adapt the azimuthal orientation of said core , with reference to said registration element , for the implementation of said core on the braiding station , so that the second angular sector (S8) provided by the braiding station for the braid join does not overlap the first angular sector (S6) occupied by the core join .
Container made from a thermoplastic molding composition comprising A) from 59.8 to 99.8% by weight of a polyester composed of from 30 to 100% by weight of a polybutylene terephthalate and 0 to 70% by weight of a polyester derived from 1,4-butanediol and a C 2-12 -aliphatic dicarboxylic acid and/or C 6-12 -cycloaliphatic dicarboxylic acid, B) 0.1 to 10% by weight of an oxidizable polyester-ether, C) 5 to 10000 weight-ppm of a salt of a transition metal, D) 0 to 40% by weight of other additional substances, where the total of the percentages by weight of components A) to B) is 100% by weight, and the intrinsic viscosity of the polybutylene terephthalate and of component A is in the range from 50 to 220 measured in 0.5 % by weight solution in a phenol-o-dichlorobenzene mixture of ratio by weight 1:1 at 25° C in accordance with ISO1628. A) from 59.8 to 99.8% by weight of a polyester composed of from 30 to 100% by weight of a polybutylene terephthalate and 0 to 70% by weight of a polyester derived from 1,4-butanediol and a C 2-12 -aliphatic dicarboxylic acid and/or C 6-12 -cycloaliphatic dicarboxylic acid, B) 0.1 to 10% by weight of an oxidizable polyester-ether, C) 5 to 10000 weight-ppm of a salt of a transition metal, D) 0 to 40% by weight of other additional substances,
A negative photoresist composition for a KrF laser, comprising, based on the total weight of the composition: (a) 5 to 60 wt% of a phenol polymer resin; (b) 0.1 to 5 wt% of a novolac resin having a weight average molecular weight of 3,000 to 50,000 represented by Chemical Formula 1 below; (c) 1 to 10 wt% of a crosslinking agent; (d) 0.1 to 10 wt% of a photoacid generator; (e) 0.01 to 5 wt% of an acid diffusion inhibitor; and (f) a remainder of a solvent, wherein the phenol polymer resin is obtained from at least one monomer selected from the group consisting of 4-hydroxy-3-methyl benzoic acid, 4-hydroxy-2-methyl benzoic acid, 5-hydroxy-2-methyl benzoic acid, 3,5-di-tert-butyl-4-hydroxy benzoic acid, 4-hydroxy-3,5-dimethyl benzoic acid, 4-hydroxy isophthalic acid, 2,4,6-trihydroxy toluene, 2,4,6-trihydroxy benzoic acid monohydrate, and 2,4,6-trihydroxy benzaldehyde: in Chemical Formula 1, R 1 is a methyl group, R 2 is a hydroxyl group (-OH), m is 1 to 9, and n is 1 to 9. (a) 5 to 60 wt% of a phenol polymer resin; (b) 0.1 to 5 wt% of a novolac resin having a weight average molecular weight of 3,000 to 50,000 represented by Chemical Formula 1 below; (c) 1 to 10 wt% of a crosslinking agent; (d) 0.1 to 10 wt% of a photoacid generator; (e) 0.01 to 5 wt% of an acid diffusion inhibitor; and (f) a remainder of a solvent, R 1 is a methyl group, R 2 is a hydroxyl group (-OH), m is 1 to 9, and n is 1 to 9.
A method for evaluating whether an mRNA vaccine composition, comprising mRNA encoding an antigen, will produce immunity against the antigen, the method comprising the steps of: identifying in a mammalian subject that has been injected with the mRNA vaccine composition, T cell suppression values in local populations of inflammatory cells in a sample that has been taken from the injection site of the mRNA vaccine composition and in a sample that has been taken from the draining lymph node of the subject, and determining a quantitative value of the amount of differential T Cell Activation Potential (dTCAP) based on the T cell suppression values from the injection site (T-suppis) and draining lymph node (T-supp LN ), wherein the quantitative value of the dTCAP is indicative of the nature of the immune response generated in response to the mRNA vaccine administration; wherein the dTCAP is calculated as a ratio of the T-suppis to the T-supp LN and wherein a ratio of at least 6:1 is indicative of a positive mRNA vaccine outcome; wherein the T-supp LN is measured as an amount of Myeloid-Derived Suppressor Cells (MDSCs) present in a draining lymph node at a time following mRNA vaccine administration; and wherein the T-suppis is measured as an amount of MDSCs present in the injection site at a time following mRNA vaccine administration. identifying in a mammalian subject that has been injected with the mRNA vaccine composition, T cell suppression values in local populations of inflammatory cells in a sample that has been taken from the injection site of the mRNA vaccine composition and in a sample that has been taken from the draining lymph node of the subject, and determining a quantitative value of the amount of differential T Cell Activation Potential (dTCAP) based on the T cell suppression values from the injection site (T-suppis) and draining lymph node (T-supp LN ), wherein the quantitative value of the dTCAP is indicative of the nature of the immune response generated in response to the mRNA vaccine administration; wherein the dTCAP is calculated as a ratio of the T-suppis to the T-supp LN and wherein a ratio of at least 6:1 is indicative of a positive mRNA vaccine outcome; wherein the T-supp LN is measured as an amount of Myeloid-Derived Suppressor Cells (MDSCs) present in a draining lymph node at a time following mRNA vaccine administration; and wherein the T-suppis is measured as an amount of MDSCs present in the injection site at a time following mRNA vaccine administration.