mhurhangee/patent-ind-claim-en huggingface dataset:
A force sensing device (1; 10; 19) comprising a housing tip (21; 210; 219); a plurality of sensors (31; 310; 319) stationarily spaced from each other; and a spring element (4; 40; 49) connecting the housing tip (21; 210; 219) to the sensors (31; 310; 319) such that moving the housing tip (21; 210; 219) and the sensors (31; 310; 319) relative to each other causes a resilient deformation of the spring element (4; 40; 49); wherein the spring element (4; 40; 49) is configured to arrange the housing tip (21; 210; 219) in a zero position relative to the sensors (31; 310; 319) by a spring force of the spring element (4; 40; 49), a spring tensioning structure (5; 50; 59) configured to adapt the spring force of the spring element (4; 40; 49) in order that the range of forces to be detectable by the force sensing device (1; 10; 19) can be adjusted, characterized in that the force sensing device (1; 10; 19) can efficiently be prepared for different conditions and applications. a housing tip (21; 210; 219); a plurality of sensors (31; 310; 319) stationarily spaced from each other; and a spring element (4; 40; 49) connecting the housing tip (21; 210; 219) to the sensors (31; 310; 319) such that moving the housing tip (21; 210; 219) and the sensors (31; 310; 319) relative to each other causes a resilient deformation of the spring element (4; 40; 49); wherein the spring element (4; 40; 49) is configured to arrange the housing tip (21; 210; 219) in a zero position relative to the sensors (31; 310; 319) by a spring force of the spring element (4; 40; 49), a spring tensioning structure (5; 50; 59) configured to adapt the spring force of the spring element (4; 40; 49) in order that the range of forces to be detectable by the force sensing device (1; 10; 19) can be adjusted, characterized in that the force sensing device (1; 10; 19) can efficiently be prepared for different conditions and applications.
ADCx19 for use in a method for treating a cancer in an individual, the method comprising administering to the individual an effective amount of ADCx19 and venetoclax; wherein ADCx19 has the chemical structure: wherein Ab represents an antibody comprising a VH domain having the sequence of SEQ ID NO. 2, and a VL domain having the sequence of SEQ ID NO. 8. wherein ADCx19 has the chemical structure: wherein Ab represents an antibody comprising a VH domain having the sequence of SEQ ID NO. 2, and a VL domain having the sequence of SEQ ID NO. 8.
A gear assembly configured for integration within a hollow rotor of an electric motor, the gear assembly comprising: a hollow cross member , said hollow cross member comprising: a central body portion; a central body thru-hole within said central body portion; and a plurality of hollow extension members , wherein said plurality of hollow extension members extend outwards from said central body portion, wherein each hollow extension member of said plurality of hollow extension members is in fluid communication with said central body thru-hole ; a plurality of gears mounted on said plurality of hollow extension members ; characterized in that the gear assembly further comprising a plurality of pins , each of said plurality of pins configured to slide within a corresponding hollow extension member of said plurality of hollow extension members , wherein each of said plurality of pins is positionable between a first position and a second position, wherein said plurality of pins in said first position are withdrawn into said hollow cross member , wherein said plurality of pins in said second position are extended, wherein a first end portion of each pin of said plurality of pins fits within a corresponding aperture in said hollow rotor when said plurality of pins are in said second position fit, and wherein said hollow cross member fits unimpeded into said hollow rotor when said plurality of pins are in said first position. a hollow cross member , said hollow cross member comprising: a central body portion; a central body thru-hole within said central body portion; and a plurality of hollow extension members , wherein said plurality of hollow extension members extend outwards from said central body portion, wherein each hollow extension member of said plurality of hollow extension members is in fluid communication with said central body thru-hole ; a central body portion; a central body thru-hole within said central body portion; and a plurality of hollow extension members , wherein said plurality of hollow extension members extend outwards from said central body portion, wherein each hollow extension member of said plurality of hollow extension members is in fluid communication with said central body thru-hole ; a plurality of gears mounted on said plurality of hollow extension members ; characterized in that the gear assembly further comprising a plurality of pins , each of said plurality of pins configured to slide within a corresponding hollow extension member of said plurality of hollow extension members , wherein each of said plurality of pins is positionable between a first position and a second position, wherein said plurality of pins in said first position are withdrawn into said hollow cross member , wherein said plurality of pins in said second position are extended, wherein a first end portion of each pin of said plurality of pins fits within a corresponding aperture in said hollow rotor when said plurality of pins are in said second position fit, and wherein said hollow cross member fits unimpeded into said hollow rotor when said plurality of pins are in said first position.
A method for metadata relocation in a dynamic random access memory, DRAM, comprising: receiving a first request to access first data at a first data location in a first memory page of the DRAM and associated metadata in a second memory page of the DRAM; determining whether the first data location in the first memory page is configured to store metadata; accessing the first data at the first data location in the first memory page if the first data location in the first memory page is not configured to store metadata; determining a metadata location in the first memory page if the first data location in the first memory page is not configured to store metadata; accessing the associated metadata at the metadata location in the first memory page if the first data location in the first memory page is not configured to store metadata; determining a second data location in the second memory page if the first data location in the first memory page is configured to store metadata; accessing the first data at the second data location in the second memory page if the first data location in the first memory page is configured to store metadata; and accessing the associated metadata at the first data location in the first memory page if the first data location in the first memory page is configured to store metadata. receiving a first request to access first data at a first data location in a first memory page of the DRAM and associated metadata in a second memory page of the DRAM; determining whether the first data location in the first memory page is configured to store metadata; accessing the first data at the first data location in the first memory page if the first data location in the first memory page is not configured to store metadata; determining a metadata location in the first memory page if the first data location in the first memory page is not configured to store metadata; accessing the associated metadata at the metadata location in the first memory page if the first data location in the first memory page is not configured to store metadata; determining a second data location in the second memory page if the first data location in the first memory page is configured to store metadata; accessing the first data at the second data location in the second memory page if the first data location in the first memory page is configured to store metadata; and accessing the associated metadata at the first data location in the first memory page if the first data location in the first memory page is configured to store metadata.
Mobile device intended for arranging on a building opening and serving to protect against water intrusion by surface water, in particular as a result of heavy precipitation or floodwater, wherein, in a use position, the device has a rear side facing the wall surface enclosing the building opening and a front side facing away from the wall surface and forming a visible surface, comprising an, in particular rectangular, frame consisting in particular of profile elements which are parallel in pairs and have a receptacle for at least one flat and/or strip-shaped sealing element of the device , which sealing element is substantially planar on the rear side , wherein the profile elements form-fittingly enclose the at least one sealing element on the front side and on a circumferential side, and wherein the frame has a plurality of fixing means which interact with, in particular positionally fixed, holding elements arranged on the building, so that, in the use position, a preloading force acting in the direction of the wall surface can be transmitted to the device , and wherein the frame has at least one insert , characterized in that the fixing means project with respect to the circumferential side and the sealing element protrudes with respect to the rear side of the frame in a non-compressed non-use position, wherein the insert is translucent or transparent at least in sections, and in that at least one further use position can be set in which a first frame side is positioned with a greater distance of between 1 cm and 30 cm from the wall surface than a second frame side which is opposite the first frame side , bears against the wall surface or is positioned with only a small distance from the wall surface .
A method of producing a blended liquid tobacco extract, the method comprising the steps of: preparing a first tobacco starting material having a first reducing sugar content S1 and a first nicotine content N1; preparing a second tobacco starting material having a second reducing sugar content S2 and a second nicotine content N2, wherein the second reducing sugar content S2 is higher than the first reducing sugar content S1 of the first tobacco starting material, wherein the first tobacco starting material and the second tobacco starting material are different from each other and wherein the first tobacco starting material and the second tobacco starting material have not been subjected to a prior extraction; heating the first tobacco starting material at a first extraction temperature T1; heating the second tobacco starting material at a second extraction temperature T2, wherein the second extraction temperature T2 is at least 10 degrees Celsius lower than the first extraction temperature T1; collecting the volatile compounds released from the first and second tobacco starting materials in gaseous form during heating; and combining the collected volatile compounds released from the first and second tobacco starting materials and forming a blended liquid tobacco extract from the combined volatile compounds. preparing a first tobacco starting material having a first reducing sugar content S1 and a first nicotine content N1; preparing a second tobacco starting material having a second reducing sugar content S2 and a second nicotine content N2, wherein the second reducing sugar content S2 is higher than the first reducing sugar content S1 of the first tobacco starting material, wherein the first tobacco starting material and the second tobacco starting material are different from each other and wherein the first tobacco starting material and the second tobacco starting material have not been subjected to a prior extraction; heating the first tobacco starting material at a first extraction temperature T1; heating the second tobacco starting material at a second extraction temperature T2, wherein the second extraction temperature T2 is at least 10 degrees Celsius lower than the first extraction temperature T1; collecting the volatile compounds released from the first and second tobacco starting materials in gaseous form during heating; and combining the collected volatile compounds released from the first and second tobacco starting materials and forming a blended liquid tobacco extract from the combined volatile compounds.
A multimode optical fiber comprising: a graded index glass core having a relative refractive index Δ1, a maximum relative refractive index delta Δ1 MAX , and a radius R 1 between 11 and 23.75 microns and a cladding region surrounding said core, wherein the fiber has a peak modal bandwidth wavelength λp >860 nm and an overfilled bandwidth of at least 1.2 GHz-km at one or more wavelengths between 980 nm and 1060 nm, wherein 0.75 ≤ Δ1 MAX ≤ 1.2 %,; and characterized in that said fiber core has an alpha value between 2.075 and 2.15, and said fiber exhibits an overfilled bandwidth of at least 3 GHz-km at a wavelength of 850 nm. a graded index glass core having a relative refractive index Δ1, a maximum relative refractive index delta Δ1 MAX , and a radius R 1 between 11 and 23.75 microns and a cladding region surrounding said core, wherein the fiber has a peak modal bandwidth wavelength λp >860 nm and an overfilled bandwidth of at least 1.2 GHz-km at one or more wavelengths between 980 nm and 1060 nm, wherein 0.75 ≤ Δ1 MAX ≤ 1.2 %,; and characterized in that said fiber core has an alpha value between 2.075 and 2.15, and said fiber exhibits an overfilled bandwidth of at least 3 GHz-km at a wavelength of 850 nm.
A method for preparing a photomask blank comprising a transparent substrate, at least one film (A) containing chromium and free of silicon, and at least one film (B) containing silicon and oxygen or silicon, oxygen and nitrogen, and free of transition metal, the film (A) and film (B) being in contact with one another, by a sputtering method wherein (i) when the film (B) is deposited on the film (A), for a predetermined period of time at the initial stage of deposition, the film (B) is sputtered with supply of oxygen-containing gas in an amount or flow rate which is reduced relative to a set value for a prescribed composition of the film (B), or without supply of oxygen-containing gas, after which the film (B) is sputtered with supply of oxygen-containing gas in an amount or flow rate of the set value conforming to the prescribed composition; or (ii) when the film (A) is deposited on the film (B), the film (B) is sputtered with supply of oxygen-containing gas in an amount or flow rate of a set value conforming to a prescribed composition of the film (B), and then, for a predetermined period of time at the final stage of the deposition, the film (B) is sputtered with supply of oxygen-containing gas in an amount or flow rate reduced from the set value or without supply of oxygen-containing gas. (i) when the film (B) is deposited on the film (A), for a predetermined period of time at the initial stage of deposition, the film (B) is sputtered with supply of oxygen-containing gas in an amount or flow rate which is reduced relative to a set value for a prescribed composition of the film (B), or without supply of oxygen-containing gas, after which the film (B) is sputtered with supply of oxygen-containing gas in an amount or flow rate of the set value conforming to the prescribed composition; or (ii) when the film (A) is deposited on the film (B), the film (B) is sputtered with supply of oxygen-containing gas in an amount or flow rate of a set value conforming to a prescribed composition of the film (B), and then, for a predetermined period of time at the final stage of the deposition, the film (B) is sputtered with supply of oxygen-containing gas in an amount or flow rate reduced from the set value or without supply of oxygen-containing gas.
Steam ironing and/or smoothing apparatus including a handle connected to a steam discharge head including a treatment surface intended for being placed vertically opposite a garment to be smoothed and comprising at least one steam outlet opening , the steam discharge head including a heating body comprising an instantaneous steam generation chamber and an electrical resistor regulated by means of a thermostat for maintaining the temperature of the steam generation chamber around a set temperature, the apparatus comprising an electric pump for injecting liquid into the steam generation chamber characterised in that the pump is controlled by a control circuit that receives information about the state of supply of the electrical resistor through the thermostat, and in that the control circuit modifies the operating state of the pump according to the powering state of the electrical resistor , the pump operating according to a first flow rate when the electrical resistor is powered and according to a second flow rate when the electrical resistor is not powered, the second flow rate being smaller than the first flow rate.
An elevator load bearing member , comprising: a plurality of load bearing cords ; and a jacket at least partially surrounding the cords , the jacket including a layer received against the cords , and the jacket including a self-healing component; characterised in that the jacket further comprises an outer coating , the outer coating including the self-healing component. a plurality of load bearing cords ; and a jacket at least partially surrounding the cords , the jacket including a layer received against the cords , and the jacket including a self-healing component; characterised in that the jacket further comprises an outer coating , the outer coating including the self-healing component.
A storage-and-retrieval cell for a parcel-handling logistics platform for handling parcels with a view to delivering them, said storage-and-retrieval cell including an upper floor and autonomously movable shuttle robots that move incoming parcels so as to position them in storage locations under the remote control of a monitoring and control unit , said unit further being designed to control said shuttle robots in such a manner that they retrieve said parcels from the locations in sequence, in which storage-and-retrieval cell said storage locations are distributed over said upper floor in such a manner as to form, firstly, two rows of storage locations that face each other and that extend in mutually parallel manner along a longitudinal direction (L), and, secondly, four half-rows of storage locations that are disposed back-to-back and in pairs, the two pairs of half-rows extending in alignment with each other in said longitudinal direction between said two rows of storage locations, said rows and half-rows of locations defining travel aisles between them on said upper floor for the shuttle robots to travel during storing and retrieval of parcels, and in which storage-and-retrieval cell a vertical travel hopper for parcels is open in the upper floor between one pair of back-to-back half-rows and the other pair of back-to-back half-rows , said hopper being designed to allow said parcels to pass through it vertically while they are being unloaded in sequence into it using said shuttle robots under the control of said unit during retrieval, said storage-and-retrieval cell being characterized in that it further includes nesting trolleys each of which is suitable for being hitched to a shuttle robot and has a deck suitable for carrying a parcel, said nesting trolleys being of different heights and widths in such a manner as to be suitable for nesting together in the same storage location , and in that , at the edge of said hopper , said storage-and-retrieval cell further includes an automatic unloading device having at least one sweeper arm suitable for sweeping the deck of a nesting trolley carrying a parcel so as to cause said parcel to fall into the hopper under the effect of relative movement of the trolley and of the sweeper arm.
An apparatus to print on media moved along a media path , comprising: a substrate having liquid feed slots (72A - 72D) formed therein extending along a major dimension of the substrate and nozzles extending along opposite sides of each of the liquid feed slots (72A - 72D), wherein the nozzles are formed into nozzle columns (350A - 352D) supported by ribs (371A - 371E) adjacent to front and back sides of each of the liquid feed slots (72A -72D) with respect to the media path; a single temperature sensor formed on the substrate adjacent to a first one of the liquid feed slots , wherein the temperature sensor is formed on one of the ribs adjacent to the upstream side of the first liquid feed slot ; and electrical interconnect formed on the substrate along the major dimension adjacent to a last one of the liquid feed slots farthest from the first liquid feed slot , wherein the substrate has electrical interconnect on one side thereof only and wherein the electrical interconnect is formed on one of the ribs adjacent to the downstream side of the last liquid feed slot . a substrate having liquid feed slots (72A - 72D) formed therein extending along a major dimension of the substrate and nozzles extending along opposite sides of each of the liquid feed slots (72A - 72D), wherein the nozzles are formed into nozzle columns (350A - 352D) supported by ribs (371A - 371E) adjacent to front and back sides of each of the liquid feed slots (72A -72D) with respect to the media path; a single temperature sensor formed on the substrate adjacent to a first one of the liquid feed slots , wherein the temperature sensor is formed on one of the ribs adjacent to the upstream side of the first liquid feed slot ; and electrical interconnect formed on the substrate along the major dimension adjacent to a last one of the liquid feed slots farthest from the first liquid feed slot , wherein the substrate has electrical interconnect on one side thereof only and wherein the electrical interconnect is formed on one of the ribs adjacent to the downstream side of the last liquid feed slot .
The use of a catalyst for the reforming of hydrocarbons in the presence of CO 2 , wherein said catalyst comprises at least nickel-magnesium mixed oxide and magnesium spinel, wherein the nickel-magnesium mixed oxide has an average crystallite size of ≤ 100 nm, the magnesium spinel phase has an average crystallite size of ≤ 100 nm, the proportion of nickel is in the range 7-28 mol%, the proportion of magnesium is in the range 8-38 mol%, and the proportion of aluminium is in the range 50-70 mol%, the BET surface area is in the range from 10 to 200 m 2 /g and the intensity of the diffraction reflection of the catalyst at 43.15 ± 0.15°2θ and the intensity of the diffraction reflection at 44.83 ± 0.20 °2θ as measured at a wave length of 0.154 nm is characterised in that the intensity ratio of the two reflections I (43.15°) /I (44.83°) is in the range from 0.3 to 1.0.