mhurhangee/patent-ind-claim-en huggingface dataset:
A method of indicating a medium misfeed along a medium transport path comprising: (a) conveying, via one or more rollers , the medium along the medium transport path ; (b) detecting, via a microphone , the sound of the conveyed medium and producing a signal representing the sound; (c) producing, via a processor , sound values from the signal ; and (i) providing, via the processor , a sensitivity setting responsive to the sound values ; (ii) providing , via the processor , frequency values from the sound values ; (iii) computing, via the processor , a frequency extent, F MAX , responsive to the frequency values ; and (iv) computing, via the processor , a frame energy responsive to the frequency values ; (d) indicating a medium jam responsive to the sensitivity setting , frequency extent, F MAX , , or frame energy. (a) conveying, via one or more rollers , the medium along the medium transport path ; (b) detecting, via a microphone , the sound of the conveyed medium and producing a signal representing the sound; (c) producing, via a processor , sound values from the signal ; and (i) providing, via the processor , a sensitivity setting responsive to the sound values ; (ii) providing , via the processor , frequency values from the sound values ; (iii) computing, via the processor , a frequency extent, F MAX , responsive to the frequency values ; and (iv) computing, via the processor , a frame energy responsive to the frequency values ; (i) providing, via the processor , a sensitivity setting responsive to the sound values ; (ii) providing , via the processor , frequency values from the sound values ; (iii) computing, via the processor , a frequency extent, F MAX , responsive to the frequency values ; and (iv) computing, via the processor , a frame energy responsive to the frequency values ; (d) indicating a medium jam responsive to the sensitivity setting , frequency extent, F MAX , , or frame energy.
A sliding member comprising: a base material; a coating layer formed on the base material and made of a resin composition including the following (A) - (C); (A) a binder resin including polyamideimide; (B) PTFE dispersed in the binder resin; and (C) graphite and MoS 2 dispersed in the binder resin; wherein PTFE has an average particle diameter less than 10μm and wherein PTFE has an average particle diameter larger than that of graphite and MoS 2 ; the content of the binder resin in the resin composition is 50 vol % to 80 vol%; the content of PTFE in the resin composition is 10 vol% to 30 vol%; the content of MoS 2 in the resin composition is more than 0 to 10 vol%; the content of graphite is more than 0 to 20 vol%; and a surface roughness of the coating layer after a sliding test is equal to or less than the surface roughness of the coating layer before the sliding test, the sliding test being carried out under the following condition: Testing device: Oil spray type poor lubrication tester Speed: 6.3 m/sec Surface pressure: 2 to 20 MPa (incremental increase: 2 MPa/min.) Time: up to 10 min. Lubrication method: Spray Lubricating oil: refrigeration oil Counterpart material: Bearing steel. a base material; a coating layer formed on the base material and made of a resin composition including the following (A) - (C); (A) a binder resin including polyamideimide; (B) PTFE dispersed in the binder resin; and (C) graphite and MoS 2 dispersed in the binder resin; (A) a binder resin including polyamideimide; (B) PTFE dispersed in the binder resin; and (C) graphite and MoS 2 dispersed in the binder resin; wherein PTFE has an average particle diameter less than 10μm and wherein PTFE has an average particle diameter larger than that of graphite and MoS 2 ; the content of the binder resin in the resin composition is 50 vol % to 80 vol%; the content of PTFE in the resin composition is 10 vol% to 30 vol%; the content of MoS 2 in the resin composition is more than 0 to 10 vol%; the content of graphite is more than 0 to 20 vol%; and a surface roughness of the coating layer after a sliding test is equal to or less than the surface roughness of the coating layer before the sliding test, the sliding test being carried out under the following condition: Testing device: Oil spray type poor lubrication tester Speed: 6.3 m/sec Surface pressure: 2 to 20 MPa (incremental increase: 2 MPa/min.) Time: up to 10 min. Lubrication method: Spray Lubricating oil: refrigeration oil Counterpart material: Bearing steel. Testing device: Oil spray type poor lubrication tester Speed: 6.3 m/sec Surface pressure: 2 to 20 MPa (incremental increase: 2 MPa/min.) Time: up to 10 min. Lubrication method: Spray Lubricating oil: refrigeration oil Counterpart material: Bearing steel.
A catalyst for a fluidized bed ammoxidation reaction comprising: silica and a metal oxide, wherein a composite of the silica and the metal oxide is represented by the following formula : Mo 12 Bi a Fe b Ni c Mg d CO e Ce f Cr g Zn h X i O j /(SiO 2 ) A ; wherein Mo represents molybdenum, Bi represents bismuth, Fe represents iron, Ni represents nickel, Mg represents magnesium, Co represents cobalt, Ce represents cerium, Cr represents chromium, Zn represents zinc, X represents at least one element selected from the group consisting of potassium, rubidium, and cesium, SiO 2 represents silica, a, b, c, d, e, f, g, h, i, and j each represent an atomic ratio of each element and satisfy 0.1≤a≤1, 0.5≤b≤4, 0.5≤c≤6.5, 0.2≤d≤2.5, 0.5≤e≤7, 0.4≤f≤1.2, g≤0.05, h≤4, and 0.05≤i≤1, provided that j represents an atomic ratio of an oxygen atom, the atomic ratio satisfying valences of constituent elements excluding silica, A represents a content of silica (% by mass) in the composite and satisfies 35≤A≤48, and values of α, β, and γ calculated from the atomic ratios of respective elements by the following expressions , , and satisfy 0.03≤α≤0.12, 0.1≤β≤0.7, and 0.2≤γ≤4: α = 1.5 a / 1.5 b + g + c + d + e + h β = 1.5 b + g / c + d + e + h and γ = e / c + d + h silica and a metal oxide, wherein a composite of the silica and the metal oxide is represented by the following formula : Mo 12 Bi a Fe b Ni c Mg d CO e Ce f Cr g Zn h X i O j /(SiO 2 ) A ; wherein Mo represents molybdenum, Bi represents bismuth, Fe represents iron, Ni represents nickel, Mg represents magnesium, Co represents cobalt, Ce represents cerium, Cr represents chromium, Zn represents zinc, X represents at least one element selected from the group consisting of potassium, rubidium, and cesium, SiO 2 represents silica, a, b, c, d, e, f, g, h, i, and j each represent an atomic ratio of each element and satisfy 0.1≤a≤1, 0.5≤b≤4, 0.5≤c≤6.5, 0.2≤d≤2.5, 0.5≤e≤7, 0.4≤f≤1.2, g≤0.05, h≤4, and 0.05≤i≤1, provided that j represents an atomic ratio of an oxygen atom, the atomic ratio satisfying valences of constituent elements excluding silica, A represents a content of silica (% by mass) in the composite and satisfies 35≤A≤48, and values of α, β, and γ calculated from the atomic ratios of respective elements by the following expressions , , and satisfy 0.03≤α≤0.12, 0.1≤β≤0.7, and 0.2≤γ≤4: α = 1.5 a / 1.5 b + g + c + d + e + h β = 1.5 b + g / c + d + e + h and γ = e / c + d + h
Albarran module with a shaft at the distal end of which an Albarran lever is arranged and at the proximal end of which a main body with a drive body is arranged, the Albarran lever being movable by a toggle on the drive body via at least one pull wire , and a proximal end of the at least one pull wire being braced in the drive body by a tensioning means, wherein the tensioning means for bracing the at least one pull wire is connectable to the drive body parallel to a longitudinal axis of the shaft , characterized in that the tensioning means is a screw which can be screwed parallel to the shaft in the drive body or with a pull-wire carrier in the drive body , wherein the screw can be screwed into the drive body from a proximal side of the drive body , wherein a screw head of the screw is coupled in terms of movement to a cover , and wherein, by tightening of the screw , the cover is pulled into the drive body or into the pull-wire carrier and can be braced between the cover and the pull-wire carrier of the at least one pull wire .
A system of driving channels for a carriage that transports airplanes on an airport apron , said carriage comprising an actuator with a basket set thereon, for wheels of an airplane , and being movable in channels arranged into taxi routes for airplanes from a landing location to a parking location and from a parking location to a take-off location, wherein said channels are formed by channel segments , and each channel segment has sidewalls and a top surface perpendicular thereto, characterised in that each channel segment is provided with at least one driving unit comprising a motor and a transmission gear that put in motion a carriae that transports the airplane , and said channel segments being depressed in the airport apron in a manner that their upper surface is flush with the surface of the airport apron .
A parcel terminal which comprises a body comprising a base frame , a roof frame and side panels ; a main boom comprising a loader , a set-up of multitude of shelves ; a console comprising a door opening/slot ; a door ; a user interface ; and a scanner , wherein - the shelves comprise rails having removable parcel containers added into the rails of the shelves , and - the console comprises a parcel container base (9.1) with attached weighing elements added to the bottom part of the console , optical measuring light curtains , and at least one measuring device , characterized in that - the body of the parcel terminal is tower-shaped, - the main boom is fastened to a rotating base that has been added to the base frame , - the set-up of multitude of shelves is circular and arranged around the rotating base , - the console comprises a motion sensor attached to the console outside wall, - the console comprises a parcel position photographing camera added into the upper part of the console , - the optical measuring light curtains are added to the rear part of the console , - the at least one measuring device is attached into at least one corner of the console , - the console comprises reflective markers added to the inside walls of the console , - and wherein the parcel terminal is configured to weigh a received parcel by means of the weighing elements and to determine the movement speed for the main boom and the loader based on the weight of the parcel so that a slower speed is determined when the weight of the parcel exceeds a predetermined weight. - the shelves comprise rails having removable parcel containers added into the rails of the shelves , and - the console comprises a parcel container base (9.1) with attached weighing elements added to the bottom part of the console , optical measuring light curtains , and at least one measuring device , - the body of the parcel terminal is tower-shaped, - the main boom is fastened to a rotating base that has been added to the base frame , - the set-up of multitude of shelves is circular and arranged around the rotating base , - the console comprises a motion sensor attached to the console outside wall, - the console comprises a parcel position photographing camera added into the upper part of the console , - the optical measuring light curtains are added to the rear part of the console , - the at least one measuring device is attached into at least one corner of the console , - the console comprises reflective markers added to the inside walls of the console , - and wherein the parcel terminal is configured to weigh a received parcel by means of the weighing elements and to determine the movement speed for the main boom and the loader based on the weight of the parcel so that a slower speed is determined when the weight of the parcel exceeds a predetermined weight.
A tablet comprising a compound of formula (A): or a pharmaceutically acceptable salt thereof, a lubricant, and one or more pharmaceutically acceptable additives, wherein compound (A) or a pharmaceutically acceptable salt thereof is present in an amount within the range of from 65 to 90 % by weight of tablet, and wherein the lubricant is talc and sodium stearyl fumarate.
Method for heating an electrically heatable catalytic converter for exhaust-gas aftertreatment in an internal combustion engine which is connected by way of its outlet to an exhaust-gas system , wherein the electrically heatable catalytic converter is arranged in the exhaust-gas system , wherein the method comprises the following steps: electrically heating the electrically heatable catalytic converter and increasing the rotation speed of the internal combustion engine to at least 1000 rpm, wherein: the steps of the method are carried out during idling of the internal combustion engine ; during the method steps drive-away restriction for a motor vehicle driven by the internal combustion engine is activated; and the drive-away restriction is visually displayed to the driver. electrically heating the electrically heatable catalytic converter and increasing the rotation speed of the internal combustion engine to at least 1000 rpm, wherein: the steps of the method are carried out during idling of the internal combustion engine ; during the method steps drive-away restriction for a motor vehicle driven by the internal combustion engine is activated; and the drive-away restriction is visually displayed to the driver. the steps of the method are carried out during idling of the internal combustion engine ; during the method steps drive-away restriction for a motor vehicle driven by the internal combustion engine is activated; and the drive-away restriction is visually displayed to the driver.
A composite comprising a photocured silicone polymer and molybdenum clusters, wherein the molybdenum clusters comprise hexanuclear molybdenum compounds selected from the group consisting of those of formula and those of formula : M 2 Mo n W 6-n X 14 Mo n W 6-n X 12 wherein M is a cation selected from the group consisting of Na + , K + and NH 4 + , wherein n is greater than zero, wherein each X is independently a monoanionic ligand, wherein the composite is a film formed by: spreading a solution of ultraviolet curable silicone monomers, photoinitiator, and molybdenum clusters, wherein the molybdenum clusters are dispersed within the solution as isolated monomers; exposing the solution to ultraviolet radiation to cure the solution and form a sensing film comprising the photocured silicone polymer, wherein the molybdenum clusters are dispersed as isolated monomers within the polymer.
A system for optimizing real-time antiskid control initialization for an aircraft on a travel surface comprising: at least one processor configured: to determine a time T1 when at least one wheel of the aircraft touches ground, to determine a time T2 when a speed for at least one wheel is equal to a ground speed, to calculate a total time T by subtracting the time T2 minus the time T1, and to determine whether the total time T exceeds a time threshold; and at least one brake, for at least one wheel, configured: to apply a high level of brake force when the total time T is shorter than the time threshold indicating that the travel surface is dry, and to apply a low level of brake force when the total time T is not shorter than the time threshold indicating that the travel surface is wet. at least one processor configured: to determine a time T1 when at least one wheel of the aircraft touches ground, to determine a time T2 when a speed for at least one wheel is equal to a ground speed, to calculate a total time T by subtracting the time T2 minus the time T1, and to determine whether the total time T exceeds a time threshold; and to determine a time T1 when at least one wheel of the aircraft touches ground, to determine a time T2 when a speed for at least one wheel is equal to a ground speed, to calculate a total time T by subtracting the time T2 minus the time T1, and to determine whether the total time T exceeds a time threshold; and at least one brake, for at least one wheel, configured: to apply a high level of brake force when the total time T is shorter than the time threshold indicating that the travel surface is dry, and to apply a low level of brake force when the total time T is not shorter than the time threshold indicating that the travel surface is wet. to apply a high level of brake force when the total time T is shorter than the time threshold indicating that the travel surface is dry, and to apply a low level of brake force when the total time T is not shorter than the time threshold indicating that the travel surface is wet.
A wire drive assembly , comprising: a drive shaft , the drive shaft comprising a retaining pin ; a drive roll having a plurality of configurations, comprising a plurality of slots , each of the plurality of slots corresponding to one of the plurality of configurations, wherein the drive roll is installed on the drive shaft with the pin , the pin being configured to engage with one of the plurality of slots to set one of the plurality of configurations, and wherein the drive roll is set at a particular location on the drive shaft when the pin engages with one of the plurality of slots ; and a sensor configured to detect which of the plurality of configurations has been set based on a distance from the sensor to a periphery of the drive roll , between the slots and an edge of the drive roll . a drive shaft , the drive shaft comprising a retaining pin ; a drive roll having a plurality of configurations, comprising a plurality of slots , each of the plurality of slots corresponding to one of the plurality of configurations, wherein the drive roll is installed on the drive shaft with the pin , the pin being configured to engage with one of the plurality of slots to set one of the plurality of configurations, and wherein the drive roll is set at a particular location on the drive shaft when the pin engages with one of the plurality of slots ; and a sensor configured to detect which of the plurality of configurations has been set based on a distance from the sensor to a periphery of the drive roll , between the slots and an edge of the drive roll .
A laundry dryer comprising: • a dryer cabinet , comprising a front wall and a rear wall , said front wall and rear wall comprising a front bulkhead and a rear bulkhead , respectively, and a basement , said basement being realized in plastic material and including an upper shell portion and a lower shell portion attached to the upper shell portion , said basement being adapted for the mounting thereon of said front wall and said rear wall ; • a drum rotatably accommodated within said dryer cabinet , said drum having a first end and a second end , said first end being an open end facing said front bulkhead and being rotatably coupled to the same and said second end being fixedly closed by a back wall which rotates unitarily with the drum , said second end facing said rear bulkhead and being rotatably coupled to the same; • at least one first roller and at least one second roller provided within said dryer cabinet for rotatably supporting said drum ; • at least one first roller support to rotatably support said at least one first roller in proximity of said first end of said drum and at least one second roller support to rotatably support said at least one second roller in proximity of said second end of said drum ; • said front bulkhead and said rear bulkhead are each realized in plastic material as an integral element; and • said at least one first roller support is provided either on one of the shell portions of said basement or in said front bulkhead and said at least one second roller support is provided on one of the shell portions of said basement or in said rear bulkhead . • a dryer cabinet , comprising a front wall and a rear wall , said front wall and rear wall comprising a front bulkhead and a rear bulkhead , respectively, and a basement , said basement being realized in plastic material and including an upper shell portion and a lower shell portion attached to the upper shell portion , said basement being adapted for the mounting thereon of said front wall and said rear wall ; • a drum rotatably accommodated within said dryer cabinet , said drum having a first end and a second end , said first end being an open end facing said front bulkhead and being rotatably coupled to the same and said second end being fixedly closed by a back wall which rotates unitarily with the drum , said second end facing said rear bulkhead and being rotatably coupled to the same; • at least one first roller and at least one second roller provided within said dryer cabinet for rotatably supporting said drum ; • at least one first roller support to rotatably support said at least one first roller in proximity of said first end of said drum and at least one second roller support to rotatably support said at least one second roller in proximity of said second end of said drum ; • said front bulkhead and said rear bulkhead are each realized in plastic material as an integral element; and • said at least one first roller support is provided either on one of the shell portions of said basement or in said front bulkhead and said at least one second roller support is provided on one of the shell portions of said basement or in said rear bulkhead .
Polypeptide comprising a first and a second immunoglobulin single variable domain (ISV), wherein - said first ISV has high affinity for/binds to the constant domain of the T cell receptor (TCR) present on a T cell; - said second ISV has high affinity for/binds to a first antigen on a target cell; wherein said first antigen is different from said TCR; and wherein said target cell is different from said T cell, and wherein said first ISV essentially consists of 4 framework regions (FR1 to FR4, respectively) and 3 complementarity determining regions (CDR1 to CDR3, respectively), in which: (i) CDR1 is chosen from the group consisting of: (a) SEQ ID NOs: 119-133; or (b) amino acid sequences that have 4, 3, 2, or 1 amino acid(s) difference with the amino acid sequence of SEQ ID NO: 123 or with any of SEQ ID NOs: 119-133; and/or (ii) CDR2 is chosen from the group consisting of: (c) SEQ ID NOs: 134-163; or (d) amino acid sequences that have 4, 3, 2, or 1 amino acid(s) difference with the amino acid sequence of SEQ ID NO: 153 or with any of SEQ ID NOs: 134-163; and/or (iii) CDR3 is chosen from the group consisting of: (e) SEQ ID NOs: 164-174; or (f) amino acid sequences that have 4, 3, 2, or 1 amino acid(s) difference with the amino acid sequence of SEQ ID NO: 170 or with any of SEQ ID NOs: 164-174. - said first ISV has high affinity for/binds to the constant domain of the T cell receptor (TCR) present on a T cell; - said second ISV has high affinity for/binds to a first antigen on a target cell; (i) CDR1 is chosen from the group consisting of: (a) SEQ ID NOs: 119-133; or (b) amino acid sequences that have 4, 3, 2, or 1 amino acid(s) difference with the amino acid sequence of SEQ ID NO: 123 or with any of SEQ ID NOs: 119-133; and/or (a) SEQ ID NOs: 119-133; or (b) amino acid sequences that have 4, 3, 2, or 1 amino acid(s) difference with the amino acid sequence of SEQ ID NO: 123 or with any of SEQ ID NOs: 119-133; and/or (ii) CDR2 is chosen from the group consisting of: (c) SEQ ID NOs: 134-163; or (d) amino acid sequences that have 4, 3, 2, or 1 amino acid(s) difference with the amino acid sequence of SEQ ID NO: 153 or with any of SEQ ID NOs: 134-163; and/or (c) SEQ ID NOs: 134-163; or (d) amino acid sequences that have 4, 3, 2, or 1 amino acid(s) difference with the amino acid sequence of SEQ ID NO: 153 or with any of SEQ ID NOs: 134-163; and/or (iii) CDR3 is chosen from the group consisting of: (e) SEQ ID NOs: 164-174; or (f) amino acid sequences that have 4, 3, 2, or 1 amino acid(s) difference with the amino acid sequence of SEQ ID NO: 170 or with any of SEQ ID NOs: 164-174. (e) SEQ ID NOs: 164-174; or (f) amino acid sequences that have 4, 3, 2, or 1 amino acid(s) difference with the amino acid sequence of SEQ ID NO: 170 or with any of SEQ ID NOs: 164-174.