mhurhangee/ep-ind-claims huggingface dataset:
A synthetic nutritional composition comprising a protein source, a lipid source and a carbohydrate source, wherein the protein content is less than 1.8 g/100 kcal and wherein the energy density of the composition is from 600 to 680 kcal/litre, for use in administration to an infant born to a non-obese and non-overweight mother, in the first year of the life of said infant for the reduction of the risk of developing metabolic syndrome, increased weight gain, increased fat deposition, overweight, obesity, insulin resistance, glucose intolerance or diabetes mellitus later in said infant's life.
A flavouring composition for infusion beverages, the composition being in the form of particles and comprising: a flavour; a water-soluble material as a matrix containing the flavour incorporated therein; and water-insoluble carrier particles neutral with regard to flavour and taste, which are coated with the water-soluble, flavour containing matrix, wherein the carrier particles comprise or consist of one or more of the following materials: extracted plant materials, extracted tea dust, extracted tea leaves. a flavour; a water-soluble material as a matrix containing the flavour incorporated therein; and water-insoluble carrier particles neutral with regard to flavour and taste, which are coated with the water-soluble, flavour containing matrix, wherein the carrier particles comprise or consist of one or more of the following materials: extracted plant materials, extracted tea dust, extracted tea leaves.
Lithium composite compound particles having a composition represented by the following compositional formula 1, which particles have an ionic strength ratio A (LiO - /NiO 2 -) of not more than 0.5 and an ionic strength ratio B (Li 3 CO 3 + /Ni +) of not more than 20 as measured on a surface of the respective lithium composite compound particles using a time-of-flight secondary ion mass spectrometer: Compositional formula 1: Li 1+x Ni 1-y-z-a CO y Mn z M a O 2 wherein M is at least one element selected from the group consisting of Ti, Bi, Sb, Al and Zr; and x, y, z and a satisfy -0.02 ≤ x ≤ 0.05, 0 < y ≤ 0.40, 0 < z ≤ 0.40 and 0 ≤ a ≤ 0.01, respectively.
A steerable catheter comprising: a tubular sheath having a lumen formed within a wall (110, 110B) thereof; and a steering mechanism disposed within the lumen, the steering mechanism comprising first and second steering components (122, 132) with at least a segment of the second steering component being coaxially disposed within the first steering component, wherein the first steering component and the second steering component are separately tensioned to bend respective regions of the tubular sheath. a tubular sheath having a lumen formed within a wall (110, 110B) thereof; and a steering mechanism disposed within the lumen, the steering mechanism comprising first and second steering components (122, 132) with at least a segment of the second steering component being coaxially disposed within the first steering component, wherein the first steering component and the second steering component are separately tensioned to bend respective regions of the tubular sheath.
A compound selected from 5-Oxo-5-(4-phenoxy-phenyl)-pentanoic acid Compound 40 5-Oxo-5-(3-phenoxy-phenyl)-pentanoic acid Compound 41 7-Oxo-7-(3-phenoxy-phenyl)-heptanoic acid Compound 42 or a salt thereof.
A method for unlocking a screen by using a fingerprint, wherein the method comprises: sending, by a fingerprint sensor, a first notification to a control chip and concurrently sending a second notification to a display driver chip of a screen when detecting that a finger presses or touches a fingerprint recognition area; completing, by the display driver chip according to the second notification, preparation work before the screen is turned on; verifying, by the control chip according to the first notification, fingerprint information collected by the fingerprint sensor and prestored fingerprint information; and if the verification succeeds, unlocking the screen and turning on the screen; wherein the completing, by the display driver chip according to the second notification, preparation work before the screen is turned on comprises: completing, by the display driver chip according to the second notification, power-on, resetting, and register initialization before the screen is turned on. sending, by a fingerprint sensor, a first notification to a control chip and concurrently sending a second notification to a display driver chip of a screen when detecting that a finger presses or touches a fingerprint recognition area; completing, by the display driver chip according to the second notification, preparation work before the screen is turned on; verifying, by the control chip according to the first notification, fingerprint information collected by the fingerprint sensor and prestored fingerprint information; and if the verification succeeds, unlocking the screen and turning on the screen; wherein the completing, by the display driver chip according to the second notification, preparation work before the screen is turned on comprises: completing, by the display driver chip according to the second notification, power-on, resetting, and register initialization before the screen is turned on.
A press forming method for forming a metal plate into a part shape having at least a top surface portion and side wall portions continuous with both left and right sides of the top surface portion, the part shape having a U-shaped or hat-shaped cross section and having one or two or more bent portions (2a, 2b) bent in a longitudinal direction that is a direction intersecting the cross section, the press forming method comprising: a first step of applying in-plane shear deformation to a plate portion on both sides or one side of the bent portions in the longitudinal direction of the metal plate, the in-plane shear deformation corresponding to a direction of bending the portion of the part shape; and a second step of implementing press forming for the metal plate to which the in-plane shear deformation has been applied, into the part shape, wherein the bent portion of the part shape is bent so that the top surface portion can protrude or be recessed, and the in-plane shear deformation by the first step is applied to a plate portion that becomes the side wall portion. a first step of applying in-plane shear deformation to a plate portion on both sides or one side of the bent portions in the longitudinal direction of the metal plate, the in-plane shear deformation corresponding to a direction of bending the portion of the part shape; and a second step of implementing press forming for the metal plate to which the in-plane shear deformation has been applied, into the part shape, wherein the bent portion of the part shape is bent so that the top surface portion can protrude or be recessed, and the in-plane shear deformation by the first step is applied to a plate portion that becomes the side wall portion.
A method of increasing the ambiguity range of an FSK radar, said process comprising: a step of emitting a waveform comprising patterns themselves formed by at least four frequency plateaus; a step of receiving echoes backscattered by at least one target; a step of eliminating echoes that are ambiguous in distance; the method being characterised in that: the frequency of the plateaus forming the patterns of duration T varies alternately from f 0 to f 0 +nδf and from (f 0 +Δf') to (f 0 +Δf')+nδf where n represents the frequency plateau number, δf the variation in frequency between two consecutive plateaus of the same pattern and Δf' the frequency deviation between two consecutive patterns, thus forming a complex pattern the periodicity of which is 2T by shifting a pattern relative to the following pattern alternately by +Δf' then by -Δf'. a step of emitting a waveform comprising patterns themselves formed by at least four frequency plateaus; a step of receiving echoes backscattered by at least one target; a step of eliminating echoes that are ambiguous in distance; the method being characterised in that: the frequency of the plateaus forming the patterns of duration T varies alternately from f 0 to f 0 +nδf and from (f 0 +Δf') to (f 0 +Δf')+nδf where n represents the frequency plateau number, δf the variation in frequency between two consecutive plateaus of the same pattern and Δf' the frequency deviation between two consecutive patterns, thus forming a complex pattern the periodicity of which is 2T by shifting a pattern relative to the following pattern alternately by +Δf' then by -Δf'. the frequency of the plateaus forming the patterns of duration T varies alternately from f 0 to f 0 +nδf and from (f 0 +Δf') to (f 0 +Δf')+nδf where n represents the frequency plateau number, δf the variation in frequency between two consecutive plateaus of the same pattern and Δf' the frequency deviation between two consecutive patterns, thus forming a complex pattern the periodicity of which is 2T by shifting a pattern relative to the following pattern alternately by +Δf' then by -Δf'.
An electric parking brake device, comprising: a drum brake including: braking gap automatic adjustment means for automatically adjusting a gap between a pair of brake shoes (15, 16) and a brake drum; and a parking brake lever configured to operate between an operation position for obtaining a parking brake state by bringing the pair of brake shoes (15, 16) into slide contact with the brake drum and a non-operation position for releasing the parking brake state; an electric actuator configured to exert power for driving the parking brake lever; and a control unit configured to control the operation of the electric actuator, characterized in that the control unit determines whether or not the braking gap automatic adjustment means operates normally based on an application operation time of the electric actuator by a time when the parking brake state is obtained, and determines that the braking gap automatic adjustment means does not operate normally when the application operation time has exceeded a predetermined application operation end determination time. a drum brake including: braking gap automatic adjustment means for automatically adjusting a gap between a pair of brake shoes (15, 16) and a brake drum; and a parking brake lever configured to operate between an operation position for obtaining a parking brake state by bringing the pair of brake shoes (15, 16) into slide contact with the brake drum and a non-operation position for releasing the parking brake state; braking gap automatic adjustment means for automatically adjusting a gap between a pair of brake shoes (15, 16) and a brake drum; and a parking brake lever configured to operate between an operation position for obtaining a parking brake state by bringing the pair of brake shoes (15, 16) into slide contact with the brake drum and a non-operation position for releasing the parking brake state; an electric actuator configured to exert power for driving the parking brake lever; and a control unit configured to control the operation of the electric actuator, characterized in that the control unit determines whether or not the braking gap automatic adjustment means operates normally based on an application operation time of the electric actuator by a time when the parking brake state is obtained, and determines that the braking gap automatic adjustment means does not operate normally when the application operation time has exceeded a predetermined application operation end determination time.
A system for selectively reducing neural activity in a submucosal layer of a duodenum of a subject, the system comprising: a catheter comprising an elongated catheter body having a proximal end and a distal end, the catheter configured for insertion into the lumen of the duodenum; an ultrasound emitting device coupled with the catheter body at or near the distal end and configured to emit a modulating ultrasound beam in the form of a focused ultrasound beam having a frequency in the range of 200 kHz to 40MHz absorbed by the different layers of the duodenum; and whereby the ultrasound emitting device when active, selectively reduces neural activity within the submucosal layer of the target area of duodenum having absorbed the modulating ultrasound beam, while maintaining functional activity of the mucosal layer and tissue layers adjacent the sensory neurons within the target area; the system being characterized in that it comprises a cooling mechanism coupled with the catheter body, configured to lower a temperature of the mucosal layer of the target area. a catheter comprising an elongated catheter body having a proximal end and a distal end, the catheter configured for insertion into the lumen of the duodenum; an ultrasound emitting device coupled with the catheter body at or near the distal end and configured to emit a modulating ultrasound beam in the form of a focused ultrasound beam having a frequency in the range of 200 kHz to 40MHz absorbed by the different layers of the duodenum; and whereby the ultrasound emitting device when active, selectively reduces neural activity within the submucosal layer of the target area of duodenum having absorbed the modulating ultrasound beam, while maintaining functional activity of the mucosal layer and tissue layers adjacent the sensory neurons within the target area; the system being characterized in that it comprises a cooling mechanism coupled with the catheter body, configured to lower a temperature of the mucosal layer of the target area.
A hydroplaning debris-flow simulation apparatus, comprising an inclined flume. characterized in that the flume comprises a plurality of water permeation units.
Staged premix burner, in particular for a combustion chamber of a gas turbine, having a swirl generator for a combustion air stream, fuel exit openings (9, 10) with feeds for the staged introduction of gaseous fuel into the combustion air stream, and a central carrier, which has an injector with a swirl nozzle for the injection of liquid fuel and a shielding-air passage for shielding air, the swirl nozzle being surrounded by the shielding-air passage and having an enlarged cross section of flow in the region of a nozzle-internal swirl generator for the liquid fuel, and this enlarged cross section of flow is reduced again toward an exit opening of the swirl nozzle.
A production method for a fiber article, comprising: a contact step of, while transferring a plurality of first fibers, bringing a plurality of resin particles formed of polytetrafluoroethylene that can be fiberized into contact with the plurality of first fibers; a first processing step of applying an external force to the plurality of first fibers brought into contact with the plurality of resin particles, and narrowing gaps between fibers; and a second processing step of, by relieving the external force applied to the plurality of first fibers brought into contact with the plurality of resin particles, forming second fibers from the plurality of resin particles, the second fibers each having an outer diameter that is smaller than each of the first fibers and is set to a value in a range of 30 nm or greater to 1.0 μm or less, and forming a fiber composite including the first fibers and the second fibers. a contact step of, while transferring a plurality of first fibers, bringing a plurality of resin particles formed of polytetrafluoroethylene that can be fiberized into contact with the plurality of first fibers; a first processing step of applying an external force to the plurality of first fibers brought into contact with the plurality of resin particles, and narrowing gaps between fibers; and a second processing step of, by relieving the external force applied to the plurality of first fibers brought into contact with the plurality of resin particles, forming second fibers from the plurality of resin particles, the second fibers each having an outer diameter that is smaller than each of the first fibers and is set to a value in a range of 30 nm or greater to 1.0 μm or less, and forming a fiber composite including the first fibers and the second fibers.
A contact assembly for use in a socket configured for receiving a pin of a plug, wherein the contact assembly comprises a first member which is electrically conductive, a second member which is electrically insulating, and a third member which is electrically conductive; wherein - the first member is a spring-loaded part configured for receiving a first pin of a plug such that the first pin contacts the first member; - the third member is configured for receiving an end of a first electrical wire; - the second member extends between the first and the third member for electrically insulating the first member from the third member; characterized in that: - the first contact assembly further comprises a wire fixation means configured for fixing the end of the first electrical wire such that it is in contact with the third member, wherein the wire fixation means is a screw extending through the first and the second member (110, 120) in the third member for fixing the end of the first electrical wire. - the first member is a spring-loaded part configured for receiving a first pin of a plug such that the first pin contacts the first member; - the third member is configured for receiving an end of a first electrical wire; - the second member extends between the first and the third member for electrically insulating the first member from the third member; characterized in that: - the first contact assembly further comprises a wire fixation means configured for fixing the end of the first electrical wire such that it is in contact with the third member, wherein the wire fixation means is a screw extending through the first and the second member (110, 120) in the third member for fixing the end of the first electrical wire.
An acoustic cavity tailored synthetic jet (20, 50) comprising: a body (22, 52) having a cavity (24, 54, 64) with a wall (40, 56, 60) having a taper from a first extent (42, 58, 68) to an aperture (26, 56, 66), wherein the cavity is configurable to produce an acoustic resonance matched to a structural resonance of a piston and drive system; and the drive system having the piston engaged to the cavity (24, 54, 64) at the first extent (42, 58, 68), said drive system and piston configured for oscillatory motion inducing a synthetic jet at the aperture (26, 56, 66), wherein the piston and drive system are operable at an uncoupled resonant frequency reduced from the matched acoustic resonance. a body (22, 52) having a cavity (24, 54, 64) with a wall (40, 56, 60) having a taper from a first extent (42, 58, 68) to an aperture (26, 56, 66), wherein the cavity is configurable to produce an acoustic resonance matched to a structural resonance of a piston and drive system; and the drive system having the piston engaged to the cavity (24, 54, 64) at the first extent (42, 58, 68), said drive system and piston configured for oscillatory motion inducing a synthetic jet at the aperture (26, 56, 66), wherein the piston and drive system are operable at an uncoupled resonant frequency reduced from the matched acoustic resonance.
Method for compensating the deflection of a milling cutter when machining a workpiece with a numerically controlled machine tool with a plurality of axes (X, Y), with the following steps: • in a first and second step (S1, S2): executing a learning step in synchronous operation on a test workpiece with a known geometry with the milling cutter which is attached to a tool spindle, and in this context • in a third and fourth step (S3, S4): determining a relationship between a variable, which is proportional to the torque of a drive of the tool spindle, and the deflection of the milling cutter in the normal direction with respect to a surface of the test workpiece, wherein the deflection is ascertained by comparing an actual contour of the test workpiece with a setpoint contour, • in a fifth step: storing the relationship for the milling cutter, • in a sixth step: machining the workpiece with the milling cutter in a synchronous operation, wherein an intervention angle of the milling cutter during the machining of the workpiece is between 0° and 140°, and in this context using the stored relationship for compensating the deflection of the milling cutter by applying a position correction, proportional to the variable, to a setpoint position of the axes (X, Y) of the machine tool. • in a first and second step (S1, S2): executing a learning step in synchronous operation on a test workpiece with a known geometry with the milling cutter which is attached to a tool spindle, and in this context • in a third and fourth step (S3, S4): determining a relationship between a variable, which is proportional to the torque of a drive of the tool spindle, and the deflection of the milling cutter in the normal direction with respect to a surface of the test workpiece, wherein the deflection is ascertained by comparing an actual contour of the test workpiece with a setpoint contour, • in a fifth step: storing the relationship for the milling cutter, • in a sixth step: machining the workpiece with the milling cutter in a synchronous operation, wherein an intervention angle of the milling cutter during the machining of the workpiece is between 0° and 140°, and in this context using the stored relationship for compensating the deflection of the milling cutter by applying a position correction, proportional to the variable, to a setpoint position of the axes (X, Y) of the machine tool.
Method for distinguishing a light arc from a luminous gas at least containing metal vapor, comprising the steps of - detecting light in a monitoring region, - measuring a first intensity of the detected light at a first wavelength λ1, - measuring a second intensity of the detected light at a second, larger wavelength A2, wherein - the ratio Iλ 1 /Iλ 2 between the first intensity Iλ 1 and the second intensity Iλ 2 is determined and - the detected light is associated with a luminous gas at least containing metal vapor if said ratio I λ1 /I λ2 is smaller than a predeterminable second threshold value, wherein - the first wavelength λ1 is selected in a range between 300 nm and 400 nm and the second wavelength λ2 is selected in a range between 650 nm and 750 nm. - detecting light in a monitoring region, - measuring a first intensity of the detected light at a first wavelength λ1, - measuring a second intensity of the detected light at a second, larger wavelength A2, - the ratio Iλ 1 /Iλ 2 between the first intensity Iλ 1 and the second intensity Iλ 2 is determined and - the detected light is associated with a luminous gas at least containing metal vapor if said ratio I λ1 /I λ2 is smaller than a predeterminable second threshold value, wherein - the first wavelength λ1 is selected in a range between 300 nm and 400 nm and the second wavelength λ2 is selected in a range between 650 nm and 750 nm.