mhurhangee/patent-ind-claim-en huggingface dataset:
Applicator for applying a cosmetic product (P), in particular to keratin fibres, and notably for applying mascara to eyelashes, said applicator comprising an applicator member connected to a gripping member , said applicator member comprising a flexible core that is able to be deformed elastically, said core bearing a set of application elements , characterized in that the core has a length greater than 45 mm, preferably greater than 60 mm, and follows an open path along at least a substantial portion of its length starting from the gripping member, without turning back towards said gripping member, the core therefore defining a distal application portion and a proximal portion .
Silencer for compressed air systems, comprising: an inlet opening for a compressed gas flow, a first sound damping means being arranged downstream of the inlet opening ; a second sound damping means being arranged downstream of the first sound damping means ; the silencer being characterized by a grid being arranged downstream of the second sound damping means , comprising at least two passages through which the compressed air flow is adapted to leave the silencer , wherein the first sound damping means has a smaller diameter compared to the second sound damping means , and wherein the second sound damping means has at least a portion with higher density compared to the first sound damping means . an inlet opening for a compressed gas flow, a first sound damping means being arranged downstream of the inlet opening ; a second sound damping means being arranged downstream of the first sound damping means ; the silencer being characterized by a grid being arranged downstream of the second sound damping means , comprising at least two passages through which the compressed air flow is adapted to leave the silencer , wherein the first sound damping means has a smaller diameter compared to the second sound damping means , and wherein the second sound damping means has at least a portion with higher density compared to the first sound damping means .
A compound for use in reducing a cytotoxic effect of copper in a subject in need thereof, said compound having the following Formula I: wherein R is -OH or -O-CH 3 , wherein the subject is a human diagnosed with a disorder that is associated with elevated levels of copper. wherein R is -OH or -O-CH 3 , wherein the subject is a human diagnosed with a disorder that is associated with elevated levels of copper.
A surface melting furnace comprising: a furnace chamber having a slag port ; a treatment-target supply mechanism configured to supply a treatment target to the furnace chamber ; and a plurality of sensors configured to perform measurement at different measurement locations for estimation of a profile of a molten surface of the treatment target, wherein the plurality of sensors includes a temperature sensor (T s ) configured to determine whether the molten surface of the treatment target is in a retreat phase where the molten surface of the treatment target retreats from the slag port to the treatment-target supply mechanism or in a moving-on phase where the molten surface of the treatment target moves on from the treatment-target supply mechanism toward the slag port on the basis of a temperature of an upper layer of the treatment target in a supplied portion where the treatment target is supplied in the furnace chamber by the treatment-target supply mechanism , and a non-contact sensor (H s ) configured to detect a height from a furnace bottom to the surface of the treatment target ; and the treatment target supplied to the furnace chamber by the treatment-target supply mechanism and accumulated in the furnace bottom in such a manner that the surface of the treatment target is inclined downward to the slag port is configured to melt from a surface of the upper layer and flow down to the slag port . a furnace chamber having a slag port ; a treatment-target supply mechanism configured to supply a treatment target to the furnace chamber ; and a plurality of sensors configured to perform measurement at different measurement locations for estimation of a profile of a molten surface of the treatment target, wherein the plurality of sensors includes a temperature sensor (T s ) configured to determine whether the molten surface of the treatment target is in a retreat phase where the molten surface of the treatment target retreats from the slag port to the treatment-target supply mechanism or in a moving-on phase where the molten surface of the treatment target moves on from the treatment-target supply mechanism toward the slag port on the basis of a temperature of an upper layer of the treatment target in a supplied portion where the treatment target is supplied in the furnace chamber by the treatment-target supply mechanism , and a non-contact sensor (H s ) configured to detect a height from a furnace bottom to the surface of the treatment target ; and the treatment target supplied to the furnace chamber by the treatment-target supply mechanism and accumulated in the furnace bottom in such a manner that the surface of the treatment target is inclined downward to the slag port is configured to melt from a surface of the upper layer and flow down to the slag port .
A vibration barrel polishing method using a vibration barrel polishing system that includes a polishing tank having a bottom surface therein, a rotating shaft configured to rotate so as to vibrate the polishing tank and a polishing jig capable of holding a workpiece (W) and rotatable around a rotation axis (RA) which extends in a direction parallel to the rotating shaft , a positioning unit configured to change a position of the polishing jig in a height direction, a rotating unit configured to rotate the polishing jig around the rotation axis (RA), and a moving unit configured to move the positioning unit and the rotating unit in a horizontal direction, the vibration barrel polishing method comprising steps of: moving the positioning unit and the rotating unit in the horizontal direction so that the polishing jig is located above the polishing tank ; supporting the polishing jig in the polishing tank in a state in which a lowermost portion (Z) of the polishing jig is separated from the bottom surface , a clearance d between the lowermost portion (Z) of the polishing jig and the bottom surface being greater than or equal to a grain diameter of a polishing medium (M); causing the polishing medium (M) to flow in the polishing tank ; and rotating the polishing jig around the rotation axis (RA) in the state in which the lowermost portion (Z) of the polishing jig is separated from the bottom surface , wherein the clearance d is (H1 + H2)/4 or less, wherein H1 represents a maximum height of a surface of the polishing medium (M) flowing in the polishing tank with respect to the bottom surface and H2 represents a minimum height thereof in a cross-sectional view along a plane orthogonal to the rotation axis (RA) and passing through a center of the bottom surface . moving the positioning unit and the rotating unit in the horizontal direction so that the polishing jig is located above the polishing tank ; supporting the polishing jig in the polishing tank in a state in which a lowermost portion (Z) of the polishing jig is separated from the bottom surface , a clearance d between the lowermost portion (Z) of the polishing jig and the bottom surface being greater than or equal to a grain diameter of a polishing medium (M); causing the polishing medium (M) to flow in the polishing tank ; and rotating the polishing jig around the rotation axis (RA) in the state in which the lowermost portion (Z) of the polishing jig is separated from the bottom surface , wherein the clearance d is (H1 + H2)/4 or less, wherein H1 represents a maximum height of a surface of the polishing medium (M) flowing in the polishing tank with respect to the bottom surface and H2 represents a minimum height thereof in a cross-sectional view along a plane orthogonal to the rotation axis (RA) and passing through a center of the bottom surface .
A process for preparing glycerol carbonate comprising the steps of: (i) contacting and partially reacting a glycerol reactant stream with: a) a dialkyl carbonate reactant stream, comprising greater than 80 wt.% dialkyl carbonate; and/or b) a cyclic alkylene carbonate reactant stream, comprising greater than 80 wt.% cyclic alkylene carbonate, in a first reaction zone in the presence of a homogeneous transesterification catalyst so as to form a reaction mixture; (ii) separating at least a portion of the alcohol by-product formed from the reaction of dialkyl carbonate and/or cyclic alkylene carbonate with glycerol in step (i) from the reaction mixture so as to obtain an alcohol-containing by-product stream; (iii) reacting at least a portion of the remaining reactants in the reaction mixture after alcohol by-product removal in step (ii) in a second reaction zone in the presence of the homogeneous transesterification catalyst; and (iv) obtaining a glycerol carbonate product stream; wherein the first reaction zone and the second reaction zone refer to distinct and separate reaction regions within a system/apparatus where the reactions according to steps (i) and (iii) are separately conducted. (i) contacting and partially reacting a glycerol reactant stream with: a) a dialkyl carbonate reactant stream, comprising greater than 80 wt.% dialkyl carbonate; and/or b) a cyclic alkylene carbonate reactant stream, comprising greater than 80 wt.% cyclic alkylene carbonate, in a first reaction zone in the presence of a homogeneous transesterification catalyst so as to form a reaction mixture; (ii) separating at least a portion of the alcohol by-product formed from the reaction of dialkyl carbonate and/or cyclic alkylene carbonate with glycerol in step (i) from the reaction mixture so as to obtain an alcohol-containing by-product stream; (iii) reacting at least a portion of the remaining reactants in the reaction mixture after alcohol by-product removal in step (ii) in a second reaction zone in the presence of the homogeneous transesterification catalyst; and (iv) obtaining a glycerol carbonate product stream;
An apparatus for determining an angle of a cut to be made to a tibia in the sagittal plane, the apparatus comprising: a first chassis having a first pair of channels for receiving pins in a tibia; a second chassis having a second pair of channels for receiving pins to be placed in a tibia, wherein the second chassis is pivotable about a pivot point so as to change the angle of the second pair of channels relative to the first pair of channels; characterised in that the apparatus further comprises a bar having a first end attached to the first chassis and a second end for supporting a distal femoral surface block, wherein in use the bar extends substantially parallel to a longitudinal axis of the tibia; and a distal femoral surface block including a flat surface for abutting a cut distal femur, pairs of pin holes for guiding pins into the distal femur, and a stylus for abutting the anterior femur, wherein the distal femoral surface block is supported by the second end of the bar a first chassis having a first pair of channels for receiving pins in a tibia; a second chassis having a second pair of channels for receiving pins to be placed in a tibia, wherein the second chassis is pivotable about a pivot point so as to change the angle of the second pair of channels relative to the first pair of channels; characterised in that the apparatus further comprises a bar having a first end attached to the first chassis and a second end for supporting a distal femoral surface block, wherein in use the bar extends substantially parallel to a longitudinal axis of the tibia; and a distal femoral surface block including a flat surface for abutting a cut distal femur, pairs of pin holes for guiding pins into the distal femur, and a stylus for abutting the anterior femur, wherein the distal femoral surface block is supported by the second end of the bar
A rapid prototyping system for electrical and electronical prototyping comprising at least one primary device , a terminal for interacting with at least a part of the primary device , a plurality of additional expansion modules connected to said primary device , wherein said expansion modules are substantially standardized modules to allow communication and recognition of each of said expansion modules from said at least one primary device , said modules being connected to said primary device and to each other, by means of connection interfaces (7,7',7"), wherein said connection interfaces (7, 7', 7", 7n) comprise reciprocally connectable pins placed on the expansion modules and on the primary device , to couple said modules together and with said primary device, said pins comprising electrical contacts for the communication between the modules and the transmission of energy and being configured in such a way to be inserted in female cavities comprised in the modules , wherein said pins are implemented by means of prismatic bodies supporting electrical contacts shaped in a way to insert themselves in the female cavities included in one of the other modules and including in turn the electrical contacts , wherein for each connection interface said prismatic bodies consist of a first set of two prismatic bodies that are inclined one with respect to the other and a second set of two further prismatic bodies that are inclined one with respect to the other in such a way to be placed specularly with respect to said first set of two prismatic bodies with respect to a plane that is perpendicular to the module , two of the prismatic bodies being parallel to each other, to edges of the respective module, and to the plane; said primary device being configured to recognize each of said expansion modules connected to said device , by recognition of an ID that univocally identifies each expansion module , said recognition being a prerequisite for the self-configuring at the primary device level which by recognizing the module assigns dynamically to it a specific address for bus communication between at least said device and said at least one module , wherein said terminal interacts with said primary device for setting of parameters and receiving data from said expansion modules .
A method of manufacturing an acousto-magnetic (AM) anti-theft soft label comprising the steps of: forming a housing to define a resonating cavity , said housing having an upper surface ; creating a concave and/or convex structure into said upper surface ; inserting a resonator and a bias into said resonating cavity where an amorphous alloy is used as the resonator and semi-hard or soft magnetic materials as the bias in order to be deactivated and re-activated repeatedly; and placing a cover onto said housing to close said resonating cavity with said resonator and bias enclosed within said resonating cavity , wherein said creating step creates a concave and/or convex patterns or words on said upper surface , characterized in that said forming step and said creating step is accomplished simultaneously by using a hot works forming process. having an upper surface ; creating a concave and/or convex structure into said upper surface ; inserting a resonator and a bias into said resonating cavity where an amorphous alloy is used as the resonator and semi-hard or soft magnetic materials as the bias in order to be deactivated and re-activated repeatedly; and placing a cover onto said housing to close said resonating cavity creating a concave and/or convex structure into said upper surface ; inserting a resonator and a bias into said resonating cavity where an amorphous alloy is used as the resonator and semi-hard or soft magnetic materials as the bias in order to be deactivated and re-activated repeatedly; and placing a cover onto said housing to close said resonating cavity with said resonator and bias enclosed within said resonating cavity , wherein said creating step creates a concave and/or convex patterns or words on said upper surface , characterized in that said forming step and said creating step is accomplished simultaneously by using a hot works forming process.
Electromotive furniture drive comprising at least one adjustment drive for the electromotive movement of at least one movable furniture component relative to a further furniture component, a control device and an operating unit , wherein a motor (M) of the at least one adjustment drive is actuated as a function of signals from the operating unit , wherein the control device comprises at least one semiconductor power switch for switching a motor current of the motor (M), wherein a voltage dropping across the semiconductor power switch is supplied to an evaluation unit in order to detect commutation edges of the motor (M),wherein the at least one semiconductor power switch is a MOSFET (T1-T4), and wherein four semiconductor power switches are provided in an H-bridge arrangement for each motor (M), characterized in that a resistance bridge comprising two resistors (R3, R4) in series connection, is arranged in parallel with the motor (M), wherein the evaluation unit is connected to a center tap between the resistors (R3, R4) and comprises at least one edge detector which comprises an operational amplifier (OP1) whose inputs are connected via low pass filters to the center tap between the resistors (R3, R4).
Method to determine and/or monitor at least one process variable of a medium in a container, wherein a mechanically resonant unit is caused to vibrate mechanically using a excitation signal (A), and the mechanical vibrations of the resonant unit are received and converted into a first reception signal (E A ), wherein a transmitter signal (S) is transmitted and a second reception signal (Es) is received, wherein the at least one process variable is determined on the basis of the first (E A ) and/or the second reception signal (Es), wherein a flow characteristic of the medium (M) is determined, wherein a third and/or fourth rod-shaped element serves/serve as a damming body/damming bodies, which generate(s) vortices in the medium (M) in the event of a flowing medium (M), wherein the vortices exhibit a speed-dependent vortex shedding frequency (f) based on the damming body, wherein a vortex shedding frequency (f) is determined on the basis of pressure fluctuations caused by the vortices using the resonant unit , and wherein the Strouhal number (SR), the Reynolds number (RE), and/or a variable derived from the Strouhal number (SR) and/or the Reynolds number (RE) is determined on the basis of the vortex shedding frequency (f). wherein a mechanically resonant unit is caused to vibrate mechanically using a excitation signal (A), and the mechanical vibrations of the resonant unit are received and converted into a first reception signal (E A ), wherein a transmitter signal (S) is transmitted and a second reception signal (Es) is received, wherein the at least one process variable is determined on the basis of the first (E A ) and/or the second reception signal (Es), wherein a flow characteristic of the medium (M) is determined, wherein a third and/or fourth rod-shaped element serves/serve as a damming body/damming bodies, which generate(s) vortices in the medium (M) in the event of a flowing medium (M), wherein the vortices exhibit a speed-dependent vortex shedding frequency (f) based on the damming body, wherein a vortex shedding frequency (f) is determined on the basis of pressure fluctuations caused by the vortices using the resonant unit , and wherein the Strouhal number (SR), the Reynolds number (RE), and/or a variable derived from the Strouhal number (SR) and/or the Reynolds number (RE) is determined on the basis of the vortex shedding frequency (f).
Video decoder configured to decode, by block based decoding, pictures of a video from a data stream using spatial intra-picture coding dependency, wherein the video decoder is configured to derive a selected spatial intra-picture coding reach setting out of a plurality of spatial intra-picture coding reach settings from the data stream, wherein a spatial reach of the spatial intra-picture dependency with respect to currently coded blocks of a current picture of the video corresponds to the selected spatial intra-picture coding reach setting, wherein the spatial reach of the spatial intra-picture dependency with respect to currently coded blocks of a current picture of the video is different for blocks of purely intra-predictively coded slices of the video and blocks of inter-predictively coded slices, and wherein the video decoder is configured to derive the selected spatial intra-picture coding reach setting for the purely intra-predictively coded slices of the video and the inter-predictively coded slices. decode, by block based decoding, pictures of a video from a data stream using spatial intra-picture coding dependency, wherein the video decoder is configured to derive a selected spatial intra-picture coding reach setting out of a plurality of spatial intra-picture coding reach settings from the data stream, wherein a spatial reach of the spatial intra-picture dependency with respect to currently coded blocks of a current picture of the video corresponds to the selected spatial intra-picture coding reach setting, wherein the spatial reach of the spatial intra-picture dependency with respect to currently coded blocks of a current picture of the video is different for blocks of purely intra-predictively coded slices of the video and blocks of inter-predictively coded slices, and wherein the video decoder is configured to derive the selected spatial intra-picture coding reach setting for the purely intra-predictively coded slices of the video and the inter-predictively coded slices.
2-chloro-2'-deoxyadenosine, known as cladribine, or a pharmaceutically acceptable salt thereof, for use in the treatment or amelioration of myasthenia gravis.
A mobile, portable conversation microphone for simultaneously recording several speakers in different channels, comprising a housing , a microphone array provided in a front side of the housing for recording the audio signals of the speakers, a processor connected to the microphone array and a battery for powering the processor, with the housing having a front leg , a rear leg and a connecting section , and with a slot being formed between the front leg and the rear leg and the connecting section connecting the front and rear legs , characterized in that the battery is at least partially arranged in the rear leg , the microphone array comprising at least four microphones spaced apart from each other and connected to the processor which is programmed to separate several speakers from the audio signals of the microphones into different channels, using beamforming, with the connecting section being integrally formed with the front and rear legs and extending between the front side and the back side of the housing .