mhurhangee/ep-ind-claims huggingface dataset:
Method for the thermal treatment of inorganic materials, at least one first substitute fuel being used for production, the first substitute fuel being fed to a first feed region, the first substitute fuel being transported from the first feed region to a first combustion region with at least one first conveying device, a continuously transporting conveying device being selected as the first conveying device, wherein the first substitute fuel is detected by means of a first sensor with at least line resolution, wherein the first sensor is arranged above the first conveying device, wherein a spatially resolved material information of the first substitute fuel is determined from the information detected by the first sensor, wherein a first calorific value is estimated from the spatially resolved material information of the first substitute fuel, wherein a first value is predetermined for the required heating energy in the first combustion area, wherein the first material flow of the first substitute fuel of the estimated first calorific value is adapted to the predetermined heating energy via the adaptation of the material flow, wherein the first substitute fuel or a second substitute fuel is fed to a second feed region, wherein the substitute fuel is transported from the second feed region to a first combustion region with at least one second conveying device, wherein a continuously transporting conveying device is selected as the second conveying device, wherein the substitute fuel is detected by means of a second sensor with at least line resolution, wherein the second sensor is arranged above the second conveying device, wherein a spatially resolved material information of the substitute fuel is determined from the information detected by the second sensor, wherein a second calorific value is estimated from the spatially resolved material information of the substitute fuel, wherein the second material flow of the substitute fuel of the estimated second calorific value is adapted to the predetermined heating energy by adjusting the conveying speed of the second conveying device.
An aircraft structure such as a tail fin, a vertical stabilizer, a horizontal stabilizer, a wing, a winglet, a canard, a rotor blade or a propeller blade, the aircraft structure having a leading edge and having an assembly for absorbing kinetic energy from a collision with a foreign object, the assembly comprising: a first support proximate to a root of the aircraft structure; one or more first sheets comprising a first material and attached to the first support to form a first portion of the leading edge of the aircraft structure; a second support proximate to an outer end of the aircraft structure; one or more second sheets comprising a second material and attached to the second support to form a second portion of the leading edge; and a hinged door comprising: one or more ribs (535a-535f) disposed between the first support and the second support and configured to give shape to a third portion of a leading edge of the aircraft structure; and one or more third sheets (540a-540f) comprising a third material, attached to the one or more ribs (535a-535f) to form the third portion of the leading edge; wherein the first support, the one or more first sheets, the second support, the one or more second sheets, the one or more ribs (535a-535f), and the one or more third sheets (540a-540f) are disposed to mitigate damage to the aircraft structure by absorbing kinetic energy from a collision with a foreign object. a first support proximate to a root of the aircraft structure; one or more first sheets comprising a first material and attached to the first support to form a first portion of the leading edge of the aircraft structure; a second support proximate to an outer end of the aircraft structure; one or more second sheets comprising a second material and attached to the second support to form a second portion of the leading edge; and a hinged door comprising: one or more ribs (535a-535f) disposed between the first support and the second support and configured to give shape to a third portion of a leading edge of the aircraft structure; and one or more third sheets (540a-540f) comprising a third material, attached to the one or more ribs (535a-535f) to form the third portion of the leading edge; one or more ribs (535a-535f) disposed between the first support and the second support and configured to give shape to a third portion of a leading edge of the aircraft structure; and one or more third sheets (540a-540f) comprising a third material, attached to the one or more ribs (535a-535f) to form the third portion of the leading edge; wherein the first support, the one or more first sheets, the second support, the one or more second sheets, the one or more ribs (535a-535f), and the one or more third sheets (540a-540f) are disposed to mitigate damage to the aircraft structure by absorbing kinetic energy from a collision with a foreign object.
A system for assessing grip security, the system comprising: a contact surface comprising a plurality of protrusions extending from a base surface, wherein the contact surface has at least a first contact surface region and a second contact surface region, the first contact surface region being configured to resist slip less than the second contact surface region, wherein the protrusions in the first contact surface region extending away from the base surface a distance less than the protrusions in the second contact surface region and the system further comprises a sensor for detecting slip in the first contact surface region. a contact surface comprising a plurality of protrusions extending from a base surface, wherein the contact surface has at least a first contact surface region and a second contact surface region, the first contact surface region being configured to resist slip less than the second contact surface region, wherein the protrusions in the first contact surface region extending away from the base surface a distance less than the protrusions in the second contact surface region and the system further comprises a sensor for detecting slip in the first contact surface region.
A catalyzed soot filter comprising a porous wall flow substrate, a catalyst for selective catalytic reduction, a palladium component, and a platinum component, the wall flow substrate comprising an inlet end, an outlet end, a substrate axial length extending between the inlet end and the outlet end, and a plurality of channels defined by internal walls of the wall flow substrate, wherein the plurality of channels comprise inlet channels having an open inlet end and a closed outlet end, and outlet channels having a closed inlet end and an open outlet end, wherein the SCR catalyst is provided on the entire surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the channel walls coated with the SCR catalyst, wherein the palladium component is provided on a portion of the surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the portions of the channel walls coated with the palladium component, wherein the portion of the inlet channel walls coated with the palladium component extends from the inlet end to x % of the substrate axial length with 0 < x < 100, wherein the platinum component is provided on a portion of the surface of the outlet channel walls and on at least a portion of the surface of the pores within the channel walls within the surface of the portions of the channel walls coated with the platinum component, wherein the portion of the outlet channel walls coated with the platinum component extends from the outlet end to 100-x % of the substrate axial length. the wall flow substrate comprising an inlet end, an outlet end, a substrate axial length extending between the inlet end and the outlet end, and a plurality of channels defined by internal walls of the wall flow substrate, wherein the plurality of channels comprise inlet channels having an open inlet end and a closed outlet end, and outlet channels having a closed inlet end and an open outlet end, wherein the SCR catalyst is provided on the entire surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the channel walls coated with the SCR catalyst, wherein the palladium component is provided on a portion of the surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the portions of the channel walls coated with the palladium component, wherein the portion of the inlet channel walls coated with the palladium component extends from the inlet end to x % of the substrate axial length with 0 < x < 100, wherein the platinum component is provided on a portion of the surface of the outlet channel walls and on at least a portion of the surface of the pores within the channel walls within the surface of the portions of the channel walls coated with the platinum component, wherein the portion of the outlet channel walls coated with the platinum component extends from the outlet end to 100-x % of the substrate axial length.
A method of controlling yarn selection for weaving systems, wherein a loom receives a plurality of yarns (C1, C2,..., C5) from respective feeders (F1, F2,..., F5) which are activated alternately by the loom according to a preestablished pattern, each one of said feeders having associated therewith: - a first identification value (NFdr) which corresponds to its operative position with respect to the loom, - a second identification value (NFdrPP) which is specific to the feeder, - sensor means adapted to detect the unwinding of yarn from the feeder, - a control unit (SPDREG) adapted to adjust the operation of the feeder on the basis of signals received from said sensor means, said loom periodically sending to the feeders (F1, F2,..., F5) pattern preview messages (PPMsg0, PPMsg1,..., PPMsg5) which contain preview selection information related to said second identification value (NFdrPP), characterized in that, in order to correct any inconsistencies between said messages (PPMsg0, PPMsg1,..., PPMsg5) and the actual selection (FdrSel), said control unit (SPDREG) monitors in real time the amount of yarn unwound from the respective feeder by way of said sensor means and, if said amount of unwound yarn exceeds a preestablished threshold value (MinPuls) for a preestablished minimum number of insertions, it automatically sets said second identification value (NFdrPP) to said first identification value (NFdr). - a first identification value (NFdr) which corresponds to its operative position with respect to the loom, - a second identification value (NFdrPP) which is specific to the feeder, - sensor means adapted to detect the unwinding of yarn from the feeder, - a control unit (SPDREG) adapted to adjust the operation of the feeder on the basis of signals received from said sensor means, said loom periodically sending to the feeders (F1, F2,..., F5) pattern preview messages (PPMsg0, PPMsg1,..., PPMsg5) which contain preview selection information related to said second identification value (NFdrPP), characterized in that, in order to correct any inconsistencies between said messages (PPMsg0, PPMsg1,..., PPMsg5) and the actual selection (FdrSel), said control unit (SPDREG) monitors in real time the amount of yarn unwound from the respective feeder by way of said sensor means and, if said amount of unwound yarn exceeds a preestablished threshold value (MinPuls) for a preestablished minimum number of insertions, it automatically sets said second identification value (NFdrPP) to said first identification value (NFdr).
A method operational on an access terminal, comprising: actively transmitting a plurality of frames on a reverse link channel; autonomously implementing a discontinuous transmission, DTX, operation during active reverse link transmissions; and powering down a transmitter circuit for a duration of at least one slot, and puncturing reverse link transmissions during the powered down periods; and characterised by: determining whether to puncture at least one slot in a subframe based on whether an earlier slot in the subframe was punctured. actively transmitting a plurality of frames on a reverse link channel; autonomously implementing a discontinuous transmission, DTX, operation during active reverse link transmissions; and powering down a transmitter circuit for a duration of at least one slot, and puncturing reverse link transmissions during the powered down periods; and characterised by: determining whether to puncture at least one slot in a subframe based on whether an earlier slot in the subframe was punctured.
A stent-graft, comprising: a stent structure comprising a first end, a second end, and a tubular wall extending therebetween, said tubular wall defining a lumen extending therethrough between said first and second ends, and said stent structure being expandable from a collapsed configuration to an expanded configuration; a first portion of said stent structure extending toward said first end being uncovered by a graft, and a second portion of said stent structure extending toward said second end being covered by said graft, said first portion thereby being adapted to allow a fluid to pass through said tubular wall, and said second portion thereby being adapted to isolate said fluid passing through said lumen of said stent structure, said graft substantially preventing fluid flow through said tubular wall along said second portion; characterised by an arm disposed adjacent a transition between said first and second portions having one end connected to the stent structure and having a free end opposite said one end, said arm being self-expanding so that the free end of said arm flares outward from said tubular wall, when there is no inward restraining force applied to said arm, said arm thereby being adapted to engage a wall of a first passageway to position said first portion within said first passageway and position said second portion within a second passageway, said second passageway opening into said first passageway at said wall. a stent structure comprising a first end, a second end, and a tubular wall extending therebetween, said tubular wall defining a lumen extending therethrough between said first and second ends, and said stent structure being expandable from a collapsed configuration to an expanded configuration; a first portion of said stent structure extending toward said first end being uncovered by a graft, and a second portion of said stent structure extending toward said second end being covered by said graft, said first portion thereby being adapted to allow a fluid to pass through said tubular wall, and said second portion thereby being adapted to isolate said fluid passing through said lumen of said stent structure, said graft substantially preventing fluid flow through said tubular wall along said second portion; characterised by an arm disposed adjacent a transition between said first and second portions having one end connected to the stent structure and having a free end opposite said one end, said arm being self-expanding so that the free end of said arm flares outward from said tubular wall, when there is no inward restraining force applied to said arm, said arm thereby being adapted to engage a wall of a first passageway to position said first portion within said first passageway and position said second portion within a second passageway, said second passageway opening into said first passageway at said wall.
4-{[(1S,4S)-5-({4-[4-oxazol-2-yl-phenoxy]phenyl}methyl)-2,5-diazabicyclo [2.2.1]heptan-2-yl]methyl}benzoic acid for use in a method for the treatment of a condition ameliorated by the inhibition of leukotriene A 4 hydrolase activity in a human patient comprising administering to said human patient the compound at a dose of between about 5 mg and about 50 mg, and wherein the compound is administered orally.
A pressure booster in which driving cylinders (14, 16) are provided respectively on both sides of a boosting cylinder, comprising a pair of operating valves (48, 52) each configured to switch a state of supply of a pressurized fluid from a pressurized fluid supply source into a pressurizing chamber (24a, 26a) of a corresponding one of the driving cylinders, characterized in that the pressure booster comprises a pair of pilot valves (72, 74) each including a knock pin with which a piston (36, 38) of a corresponding one of the driving cylinders comes in contact at a travel end of the piston, wherein, when one or another of the pilot valves switches to a first position by the knock pin of the pilot valve being pushed by the corresponding piston, then a state of supply of the pressurized fluid to the pair of operating valves is switched and a certain fluid pressure acts on the knock pin so as to hold the pilot valve in the first position.
A method of calibrating a smart device, comprising: providing one or more profile containers in an instrument for calibrating the smart device, each profile container comprising locators for preselected items from among multiple items in a device description of the smart device, the device description including items for calibrating the smart device, said preselected items including favorite items and calibration setup items, and said favorite items including slot favorites and user favorites, wherein a slot favorite is defined by a host manufacturer of the smart device or the instrument, or by a vendor of the smart device, and has a defined name that informs a user of which specific preselected item is mapped to the slot favorite, and wherein the user favorites are free-form favorites designatable by the user for any preselected item; accessing, by the instrument, one or more selected items in the smart device to identify the smart device; associating at least one of the profile containers in the instrument with the identified smart device; displaying, by the instrument, a list of said locators for favorite items and calibration setup items from the associated profile container; loading the preselected items of the associated profile container as default inputs to the instrument that configure the instrument for conducting one or more calibration operations on the smart device; and conducting one or more calibration operations on the smart device by testing the smart device with the instrument to verify whether the smart device is operating within a predetermined tolerance.
A method in a network component for adaptable traffic engineering, TE, configuration in software defined networking, SDN, the method comprising: receiving at the network component TE configuration information, wherein the TE configuration information comprises information about a change in radio access network, RAN, conditions and a change in at least one of network conditions, a TE algorithm, user equipment, UE, information, and the network component; dynamically changing, at the network component, the TE configuration in accordance with the change in the RAN conditions and the change in at least one of network conditions, the TE algorithm, UE information, and the network component; and transmitting the configuration information to a TE determination unit for use in making a TE decision matching current network conditions. receiving at the network component TE configuration information, wherein the TE configuration information comprises information about a change in radio access network, RAN, conditions and a change in at least one of network conditions, a TE algorithm, user equipment, UE, information, and the network component; dynamically changing, at the network component, the TE configuration in accordance with the change in the RAN conditions and the change in at least one of network conditions, the TE algorithm, UE information, and the network component; and transmitting the configuration information to a TE determination unit for use in making a TE decision matching current network conditions.
A method for predicting clinical response of a subject to an immunotherapy comprising: a) performing a multiplex amplification reaction to amplify target immune receptor nucleic acid template molecules derived from a biological sample from a subject candidate for an immunotherapy, wherein the multiplex amplification reaction comprises a plurality of amplification primer pairs including a plurality of variable gene primers directed to a majority of V genes of the target immune receptor, thereby generating target immune receptor amplicon molecules comprising the target immune receptor repertoire; b) performing sequencing of the target immune receptor repertoire amplicons; c) identifying immune receptor clones from the sequencing and identifying convergent immune receptor clones among the immune receptor clones, wherein the convergent immune receptor clones have a similar or identical amino acid sequence and a different nucleotide sequence; d) determining the frequency of convergent immune receptor clones in the sample; and e) using the frequency of all clones having a convergent immune receptor in the sample as a predictor of the subject's clinical response to the therapy, wherein a convergent immune receptor clone frequency greater than a convergent frequency cutoff indicates that the subject is candidate for the therapy. a) performing a multiplex amplification reaction to amplify target immune receptor nucleic acid template molecules derived from a biological sample from a subject candidate for an immunotherapy, wherein the multiplex amplification reaction comprises a plurality of amplification primer pairs including a plurality of variable gene primers directed to a majority of V genes of the target immune receptor, thereby generating target immune receptor amplicon molecules comprising the target immune receptor repertoire; wherein the multiplex amplification reaction comprises a plurality of amplification primer pairs including a plurality of variable gene primers directed to a majority of V genes of the target immune receptor, thereby generating target immune receptor amplicon molecules comprising the target immune receptor repertoire; b) performing sequencing of the target immune receptor repertoire amplicons; c) identifying immune receptor clones from the sequencing and identifying convergent immune receptor clones among the immune receptor clones, wherein the convergent immune receptor clones have a similar or identical amino acid sequence and a different nucleotide sequence; d) determining the frequency of convergent immune receptor clones in the sample; and e) using the frequency of all clones having a convergent immune receptor in the sample as a predictor of the subject's clinical response to the therapy, wherein a convergent immune receptor clone frequency greater than a convergent frequency cutoff indicates that the subject is candidate for the therapy.