mhurhangee/ep-ind-claims huggingface dataset:
A dispensing device for dispensing a fluid product including a rigid cylindrical body the main axis of the body of which is vertically oriented, a rigid piston mainly horizontally oriented and which is slidably movable along the vertical direction inside the body, and an upper sampling wall which plugs the upper end of the body, wherein the body, the piston and the upper wall delimit a volume for being filled by a product to be dispensed; wherein said upper wall includes a slit stopper which is able to be opened to enable said volume to be connected with the outside, wherein said upper wall is elastically deformable and is able to be deformed inwardly of said volume when a pressure is manually exerted on the upper wall, to cause an increase in the pressure inside the volume and cause the slit stopper to be opened, characterised in that the piston bears an O-ring which is radially compressed between an inner cylindrical wall of the body and a wall of the piston, said wall of the piston including a conical-shaped segment opened towards the upper wall against which the O-ring bears when the piston is driven to move apart from the upper wall, to prevent the piston from moving apart from the upper wall when a pressure is exerted on the upper wall.
Use of polymers modified with alkoxysilane groups and obtainable by reaction of a) compounds or mixtures of compounds with isocyanate-reactive groups, having a hydroxyl number and/or amine or thiol number of greater than 30 mg KOH/g, with b) an isocyanate-functional alkoxysilane compound of the general formula: in which Z 1, Z 2 and Z 3 are identical or different C 1 -C 8 alkoxy or C 1 -C 8 alkyl moieties, which may also be bridged, but where there must be at least one C 1 -C 8 alkoxy moiety on each Si atom, Q is an at least difunctional linear or branched organic moiety, preferably an alkylene radical having 1 to 8 carbon atoms, in adhesives having a lap shear strength of greater than 5 N/mm 2, the lap shear strength being determined on singly overlapped test specimens of beech with a length of 40 mm, a width of 20 mm and a thickness of 5 mm, with an overlap length of 10 mm and a bond gap thickness of about 1 mm, on a tensile testing machine with a rate of advance of 100 mm/min, following storage of the test specimens for 7 days at 23°C and 50% relative humidity, then 20 days at 40°C and lastly one day at 23°C and 50% relative humidity. a) compounds or mixtures of compounds with isocyanate-reactive groups, having a hydroxyl number and/or amine or thiol number of greater than 30 mg KOH/g, with b) an isocyanate-functional alkoxysilane compound of the general formula: in which Z 1, Z 2 and Z 3 are identical or different C 1 -C 8 alkoxy or C 1 -C 8 alkyl moieties, which may also be bridged, but where there must be at least one C 1 -C 8 alkoxy moiety on each Si atom, Q is an at least difunctional linear or branched organic moiety, preferably an alkylene radical having 1 to 8 carbon atoms, Z 1, Z 2 and Z 3 are identical or different C 1 -C 8 alkoxy or C 1 -C 8 alkyl moieties, which may also be bridged, but where there must be at least one C 1 -C 8 alkoxy moiety on each Si atom, Q is an at least difunctional linear or branched organic moiety, preferably an alkylene radical having 1 to 8 carbon atoms,
A method comprising: operating in a first network while a mobile device (128, 200) is prevented from scanning for a second network (104, 106); determining a distance that the mobile device (128, 200) is from a reference location, and scanning for the second network (104, 106) and overriding a running timer when the determined distance from the reference location exceeds a threshold, wherein the running timer prevents the mobile device (128, 200) from scanning the second network (104, 106). operating in a first network while a mobile device (128, 200) is prevented from scanning for a second network (104, 106); determining a distance that the mobile device (128, 200) is from a reference location, and scanning for the second network (104, 106) and overriding a running timer when the determined distance from the reference location exceeds a threshold, wherein the running timer prevents the mobile device (128, 200) from scanning the second network (104, 106).
Motor vehicle having a charging device for inductively charging a battery of a motor vehicle by means of a charging station, wherein the charging device has a secondary resonant circuit having a secondary capacitor (C s) and a secondary coil (L s), wherein a rectifier is connected between the secondary resonant circuit and the battery of the motor vehicle, wherein the battery (Bat) is charged in such a way that a primary resonant circuit of the charging station is charged and an AC voltage is transmitted to the secondary side by coupling a primary coil (L p) to the secondary coil (L s), wherein the charging device further comprises a measuring device designed to evaluate the time profile of the voltage amplitude of the secondary resonant circuit after an interruption of the excitation of the secondary resonant circuit by the primary resonant circuit in order detect a ferritic object between the primary coil (L P) and the secondary coil (L s), characterised in that the measuring device is designed to check whether the rectifier is blocking, wherein the measuring device is further designed to evaluate the time profile of the voltage amplitude of the secondary resonant circuit only when the rectifier is blocking. wherein the charging device has a secondary resonant circuit having a secondary capacitor (C s) and a secondary coil (L s), wherein a rectifier is connected between the secondary resonant circuit and the battery of the motor vehicle, wherein the battery (Bat) is charged in such a way that a primary resonant circuit of the charging station is charged and an AC voltage is transmitted to the secondary side by coupling a primary coil (L p) to the secondary coil (L s), wherein the charging device further comprises a measuring device designed to evaluate the time profile of the voltage amplitude of the secondary resonant circuit after an interruption of the excitation of the secondary resonant circuit by the primary resonant circuit in order detect a ferritic object between the primary coil (L P) and the secondary coil (L s), characterised in that the measuring device is designed to check whether the rectifier is blocking, wherein the measuring device is further designed to evaluate the time profile of the voltage amplitude of the secondary resonant circuit only when the rectifier is blocking.
A method for managing the use of dive resources characterised by: storing a target dive time; measuring an elapsed dive time; calculating a target remaining dive time; measuring a dive resource; measuring a dive resource usage rate; calculating a dive resource net effect; measuring a dive variable; calculating a dive time limitation; comparing the target remaining dive time and each dive resource net effect; and determining a dive termination time as the lowest value of the target remaining dive time and each dive resource net effect. storing a target dive time; measuring an elapsed dive time; calculating a target remaining dive time; measuring a dive resource; measuring a dive resource usage rate; calculating a dive resource net effect; measuring a dive variable; calculating a dive time limitation; comparing the target remaining dive time and each dive resource net effect; and determining a dive termination time as the lowest value of the target remaining dive time and each dive resource net effect.
An antibody or a fragment thereof, which comprises a heavy chain variable region comprising CDRs 1 to 3 represented by SEQ ID NOS: 39, 40, and 41 respectively and a light chain variable region comprising CDRs 1 to 3 represented by SEQ ID NOS: 43, 44, and 45 respectively, and has immunological reactivity with a CAPRIN-1 protein.
A biological conversion process comprising: feeding a substrate to a bioreactor system comprising at least a first bioreactor including a culture medium and bacterium to metabolize a carbon source in the substrate and produce at least one fermentation product; withdrawing from the bioreactor system a bleed stream comprising bacterium withdrawing from the bioreactor system a permeate stream obtained from filtration of a liquid stream of the bioreactor system; feeding at least a portion of the bleed stream and at least a portion of the permeate stream to a low pressure separator comprising a divider, the divider being configured to isolate, in a lower section, a liquid fraction of the bleed stream from a liquid fraction of the permeate stream and also configured to combine, in an upper section, a gaseous fraction of the bleed stream with a gaseous fraction of the permeate stream. feeding a substrate to a bioreactor system comprising at least a first bioreactor including a culture medium and bacterium to metabolize a carbon source in the substrate and produce at least one fermentation product; withdrawing from the bioreactor system a bleed stream comprising bacterium withdrawing from the bioreactor system a permeate stream obtained from filtration of a liquid stream of the bioreactor system; feeding at least a portion of the bleed stream and at least a portion of the permeate stream to a low pressure separator comprising a divider, the divider being configured to isolate, in a lower section, a liquid fraction of the bleed stream from a liquid fraction of the permeate stream and also configured to combine, in an upper section, a gaseous fraction of the bleed stream with a gaseous fraction of the permeate stream.
A current-perpendicular-to-plane magneto-resistance effect element, comprising: a substrate comprising at least one of a surface-oxidized Si substrate, a silicon substrate, a glass substrate, and a metal substrate; an orientation layer formed on the substrate; a lower ferromagnetic layer and an upper ferromagnetic layer that each comprises a polycrystalline thin film of a Heusler alloy, and that are each formed on the orientation layer; and a spacer layer sandwiched between the lower ferromagnetic layer and the upper ferromagnetic layer, characterized in that the orientation layer comprises at least one of MgO, TiN and NiTa alloys and textures the Heusler alloy into a direction; and the spacer layer is at least one metal selected from the group consisting of Ag, Al, Cu, Au and Cr, or any alloys of the selected metal(s). a substrate comprising at least one of a surface-oxidized Si substrate, a silicon substrate, a glass substrate, and a metal substrate; an orientation layer formed on the substrate; a lower ferromagnetic layer and an upper ferromagnetic layer that each comprises a polycrystalline thin film of a Heusler alloy, and that are each formed on the orientation layer; and a spacer layer sandwiched between the lower ferromagnetic layer and the upper ferromagnetic layer, characterized in that the orientation layer comprises at least one of MgO, TiN and NiTa alloys and textures the Heusler alloy into a direction; and the spacer layer is at least one metal selected from the group consisting of Ag, Al, Cu, Au and Cr, or any alloys of the selected metal(s).
A pressure swing adsorption process for separating a pressurized supply feed gas containing one or more strongly adsorbable component from at least one less strongly adsorbable product gas component in a ten bed pressure swing adsorption system to produce a continuous stream of product gas enriched in the less strongly adsorbable component and a continuous stream of offgas that is enriched in strongly adsorbable components, wherein the process cycle has twenty steps including five bed-to-bed equalizations steps, while two of the beds are in production, in accordance to the following cycle chart: where: A1 = First Adsorption Step A2 = Second Adsorption Step A3 = Third Adsorption Step A4 = Fourth Adsorption Step E1 = First Equalization Down E2 = Second Equalization Down E3 = Third Equalization Down E4 = Fourth Equalization Down E5 = Fifth Equalization Down PPG1 = First Provide Purge Gas Step PPG2 = Second Provide Purge Gas Step BD = Blowdown PG2 = Purge step using gas from PPG2 Step PG1 = Purge step using gas from PPG1 step E5' = Equalization Up (using gas from E5 step) E4' = Equalization Up (using gas from E4 step) E3' = Equalization Up (using gas from E3 step) E2' = Equalization Up (using gas from E2 step) E1' = Equalization Up (using gas from E1 step) PP = Product Pressurization. A1 = First Adsorption Step A2 = Second Adsorption Step A3 = Third Adsorption Step A4 = Fourth Adsorption Step E1 = First Equalization Down E2 = Second Equalization Down E3 = Third Equalization Down E4 = Fourth Equalization Down E5 = Fifth Equalization Down PPG1 = First Provide Purge Gas Step PPG2 = Second Provide Purge Gas Step BD = Blowdown PG2 = Purge step using gas from PPG2 Step PG1 = Purge step using gas from PPG1 step E5' = Equalization Up (using gas from E5 step) E4' = Equalization Up (using gas from E4 step) E3' = Equalization Up (using gas from E3 step) E2' = Equalization Up (using gas from E2 step) E1' = Equalization Up (using gas from E1 step) PP = Product Pressurization.
A module comprising: a sensor device; a mounting substrate comprising a mounting face (211, 221, 231, 241, 251); and a supporting member comprising a fixing face (32, 33, 34), wherein the sensor device is mounted on the mounting face (211, 221, 231, 241, 251), characterized in that at least one of the sensor device and the mounting face (211, 221, 231, 241, 251) mounted on the sensor device is mounted on the fixing face (32, 33, 34), and the sensor device is disposed between the supporting member and the mounting face (211, 221, 231, 241, 251) of the mounting substrate. a sensor device; a mounting substrate comprising a mounting face (211, 221, 231, 241, 251); and a supporting member comprising a fixing face (32, 33, 34), wherein the sensor device is mounted on the mounting face (211, 221, 231, 241, 251), characterized in that at least one of the sensor device and the mounting face (211, 221, 231, 241, 251) mounted on the sensor device is mounted on the fixing face (32, 33, 34), and the sensor device is disposed between the supporting member and the mounting face (211, 221, 231, 241, 251) of the mounting substrate.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, BS, system information, wherein the system information includes: first configuration information including information related to a lowest numbered resource block of an initial active uplink bandwidth part, UL BWP, and second configuration information for a set of physical random access channel, PRACH, transmission occasions, including information on a frequency offset of a lowest PRACH transmission occasion in the frequency domain with respect to the lowest numbered resource block of the initial active UL BWP, transmitting, to the BS, a random access preamble on a PRACH transmission occasion of a set of PRACH transmission occasions determined based on the system information. receiving, from a base station, BS, system information, wherein the system information includes: first configuration information including information related to a lowest numbered resource block of an initial active uplink bandwidth part, UL BWP, and second configuration information for a set of physical random access channel, PRACH, transmission occasions, including information on a frequency offset of a lowest PRACH transmission occasion in the frequency domain with respect to the lowest numbered resource block of the initial active UL BWP, first configuration information including information related to a lowest numbered resource block of an initial active uplink bandwidth part, UL BWP, and second configuration information for a set of physical random access channel, PRACH, transmission occasions, including information on a frequency offset of a lowest PRACH transmission occasion in the frequency domain with respect to the lowest numbered resource block of the initial active UL BWP, transmitting, to the BS, a random access preamble on a PRACH transmission occasion of a set of PRACH transmission occasions determined based on the system information.
A ripper shank assembly, comprising: a ripper shank; a ripper tip mounted to a front end of the ripper shank, the ripper tip including a first bulge (64, 76) in a side surface (50, 52) of the ripper tip, a first lock cavity (58, 72) in the first bulge (65, 76), a first rotating lock in the first lock cavity (58, 72), the first lock being configured to secure the ripper tip to the ripper shank by being rotated from an unlocked position to a locked position; a ripper shank protector mounted to a front edge of the ripper shank rearward of the ripper tip, the ripper shank protector including a second bulge in a side surface of the ripper shank protector; a second lock cavity in the second bulge; and a second rotating lock in the second lock cavity, the second lock being configured to secure the ripper shank protector to the ripper shank by being rotated from an unlocked position to a locked position. a ripper shank; a ripper tip mounted to a front end of the ripper shank, the ripper tip including a first bulge (64, 76) in a side surface (50, 52) of the ripper tip, a first lock cavity (58, 72) in the first bulge (65, 76), a first rotating lock in the first lock cavity (58, 72), the first lock being configured to secure the ripper tip to the ripper shank by being rotated from an unlocked position to a locked position; a ripper shank protector mounted to a front edge of the ripper shank rearward of the ripper tip, the ripper shank protector including a second bulge in a side surface of the ripper shank protector; a second lock cavity in the second bulge; and a second rotating lock in the second lock cavity, the second lock being configured to secure the ripper shank protector to the ripper shank by being rotated from an unlocked position to a locked position.
A high density LED array, comprising: a mounting substrate; a plurality of LED assemblies (102, 144) attached to the substrate in an alternating polarity mounting scheme, said plurality of LED assemblies including a terminal LED assembly at each end of the array, each of said LED assemblies including a positive electrode (120, 146) and a negative electrode (122, 148) electrically connected to an LED chip; a plurality of power connect clamps for connecting each of said terminal LED assemblies to an electrical power source, said power connect clamps including a power connect fastener threaded into a power connect clamp aperture, said power connect fastener threaded onto an electrical connector to connect each said power connect clamp to said electrical power source; a plurality of interconnect clamps connecting positive and negative electrodes of adjacent LED assemblies (102, 144), each of said interconnect clamps including a pair interconnect clamp fasteners (206, 208), each said interconnect clamp fastener threaded into an interconnect clamp aperture (198, 200), said interconnect clamp fastener threaded against a positive or negative electrode to connect said positive and said negative electrodes of adjacent LED assemblies together in an electrical series between the pair of terminal LED assemblies. a mounting substrate; a plurality of LED assemblies (102, 144) attached to the substrate in an alternating polarity mounting scheme, said plurality of LED assemblies including a terminal LED assembly at each end of the array, each of said LED assemblies including a positive electrode (120, 146) and a negative electrode (122, 148) electrically connected to an LED chip; a plurality of power connect clamps for connecting each of said terminal LED assemblies to an electrical power source, said power connect clamps including a power connect fastener threaded into a power connect clamp aperture, said power connect fastener threaded onto an electrical connector to connect each said power connect clamp to said electrical power source; a plurality of interconnect clamps connecting positive and negative electrodes of adjacent LED assemblies (102, 144), each of said interconnect clamps including a pair interconnect clamp fasteners (206, 208), each said interconnect clamp fastener threaded into an interconnect clamp aperture (198, 200), said interconnect clamp fastener threaded against a positive or negative electrode to connect said positive and said negative electrodes of adjacent LED assemblies together in an electrical series between the pair of terminal LED assemblies.
Confectionary item producing machine comprising a mass area in which liquid confectionary mass is processed, an electric consumer load which is arranged in the mass area, wherein the electric consumer load is arranged in a processing element of the confectionary item producing machine that gets into contact with the liquid confectionary mass, characterized by a cable-less energy transfer unit comprising a transmitter and a receiver for suppling the electric consumer load with electric energy, wherein the receiver is arranged in the mass area. a mass area in which liquid confectionary mass is processed, an electric consumer load which is arranged in the mass area, wherein the electric consumer load is arranged in a processing element of the confectionary item producing machine that gets into contact with the liquid confectionary mass, characterized by a cable-less energy transfer unit comprising a transmitter and a receiver for suppling the electric consumer load with electric energy, wherein the receiver is arranged in the mass area.
An in vitro or ex vivo method for generating less mature cells from starting cells in the absence of bFGF comprising inducing the starting cells to revert to a less mature state, comprising contacting the starting cells with a NME1 dimer or NME7 protein or gene encoding NME7 protein; wherein the starting cells are chosen from the group comprising pluripotent stem cells in the primed state, multipotent stem cells and terminally differentiated cells, wherein the multipotent stem cell is a hematopoietic cell, a bone marrow cell or a neuronal cell; wherein the less mature state is a pluripotent state; and wherein the less mature state is characterized by an increase in expression of: (i) at least one of OCT4, SOX2, KLF4, KLF2, NANOG, LIN28, MUC1, NME1 and NME7; or (ii) at least one of OCT4, SOX2, NANOG, KLF4, KLF2, Tra-1-60, Tra-1-81, SSEA4 and REX-1; or (iii) at least one of MUC1/MUC1*, OCT4, SSEA4, Tra-1-60, REX-1, NANOG and KLF4: as compared to the corresponding starting cells. wherein the starting cells are chosen from the group comprising pluripotent stem cells in the primed state, multipotent stem cells and terminally differentiated cells, wherein the multipotent stem cell is a hematopoietic cell, a bone marrow cell or a neuronal cell; wherein the less mature state is a pluripotent state; and wherein the less mature state is characterized by an increase in expression of: (i) at least one of OCT4, SOX2, KLF4, KLF2, NANOG, LIN28, MUC1, NME1 and NME7; or (ii) at least one of OCT4, SOX2, NANOG, KLF4, KLF2, Tra-1-60, Tra-1-81, SSEA4 and REX-1; or (iii) at least one of MUC1/MUC1*, OCT4, SSEA4, Tra-1-60, REX-1, NANOG and KLF4: (i) at least one of OCT4, SOX2, KLF4, KLF2, NANOG, LIN28, MUC1, NME1 and NME7; or (ii) at least one of OCT4, SOX2, NANOG, KLF4, KLF2, Tra-1-60, Tra-1-81, SSEA4 and REX-1; or (iii) at least one of MUC1/MUC1*, OCT4, SSEA4, Tra-1-60, REX-1, NANOG and KLF4: as compared to the corresponding starting cells.
A device for generating a voltage pulse from a low impedance voltage source for igniting a pyrotechnic igniter, wherein the voltage of the low impedance voltage source is lower than the necessary ignition voltage of the pyrotechnic igniter, and the igniter is connected in parallel to an inductance, and the ignition voltage is generated by interrupting the current flow through the inductance caused by the low impedance voltage source, characterized in that the low impedance voltage source is a conductor flowed through by a current from which the voltage is tapped at two different points.