mhurhangee/ep-ind-claims huggingface dataset:
A compound selected from the group consisting of where R 1 -R 8 are each individually acyl; formyl; amido; nitro; alkylamine; C 1 -C 10 alkyl functionalized with a heteroatom substituted ring structure selected from the group consisting of imidazole, pyrrole, pyridine, furan, pyrimidine, pyrazole; C 1 -C 10 alkyl functionalized with an amide group; or C 1 -C 10 alkyl functionalized with an ester group; wherein is a neutral ligand selected from the group consisting of aliphatic C 1 -C 20 ether or polyether; crownether; amine; polyamine; alkoxyamine; polyalkoxyamine; amide; polyamide; ester; polyester; aromatic ether; aromatic ester; aromatic amide; aromatic amine; pyridine; imidazole; pyrazine; furan; alkylcarbonate; and pyrrole; and n = 0-4; and M = Ba, Sr, Ca, Ra or Mg; and the R groups of one pyrrolyl anion can be joined to the R groups of the other pyrrolyl anion to connect the two anions together; barium bis(2,5-di-tert-butylpyrrolyl) bis tetrahydrofuran; barium bis(2,3,5-tri-tert-butylpyrrolyl) tetrahydrofuran; barium bis(2,3,5-tri-tert-butylpyrrolyl); and barium bis(2,5-di-tert-amylpyrrolyl) bis tetrahydrofuran.
Membrane valve with at least one membrane (10a; 10b; 10c; 10d), with a housing (12a; 12b; 12c) comprising at least two valve passages (14a, 16a; 14b, 16b; 14c, 16c), with a movably supported switch element (18a; 18b; 18c; 18d) closing at least one of the valve passages (14a; 14b; 14c) in at least one switching position by way of the switch element (18a; 18b; 18c; 18d) pressing the at least one membrane (10a; 10b; 10c; 10d) against at least one sealing surface (20a; 20b; 20c) of the at least one valve passage (14a; 14b; 14c), and with a support device (22a; 22b; 22c) supporting the switch element (18a; 18b; 18c; 18d) on the housing (12a; 12b; 12c) rotatably about a switch axis (24a; 24b; 24c), characterised in that at least one sealing surface (20a; 20b; 20c) of at least one valve passage (14a; 14b; 14c) is implemented, with respect to an inner radius (38a; 38b; 38c) of the housing (12a; 12b; 12c) about the switch axis (24a; 24b; 24c; 24d), as a projection (40a; 40b; 40c) towards the switch axis (24a; 24b; 24c; 24d).
A biometric authentication device comprising: a biometric authentication sensor configured to be brought into contact with any finger of a hand and acquire biometric authentication information from the finger; a housing accommodating the biometric authentication sensor, including an opening exposing the biometric authentication sensor to a part of an outer surface, and configured to be held by the fingers of the hand, the housing having a cubic shape that can be fitted into a sphere having a diameter of 7 cm; a battery provided in the housing; and a power supply circuit configured to start supply of power from the battery by the biometric authentication sensor being pressed down in a state where the finger is in contact with the biometric authentication sensor; wherein a groove is provided in the housing, the groove 22 being provided in one surface of the four surfaces adjacent to a surface with the opening where the biometric authentication sensor is exposed. a biometric authentication sensor configured to be brought into contact with any finger of a hand and acquire biometric authentication information from the finger; a housing accommodating the biometric authentication sensor, including an opening exposing the biometric authentication sensor to a part of an outer surface, and configured to be held by the fingers of the hand, the housing having a cubic shape that can be fitted into a sphere having a diameter of 7 cm; a battery provided in the housing; and a power supply circuit configured to start supply of power from the battery by the biometric authentication sensor being pressed down in a state where the finger is in contact with the biometric authentication sensor; wherein a groove is provided in the housing, the groove 22 being provided in one surface of the four surfaces adjacent to a surface with the opening where the biometric authentication sensor is exposed.
A spinal stabilizing system comprising: - a stabilizing member; and - a device for connecting the stabilizing member to one or more bones of a patient, comprising: - an anchor base for receiving a bone anchor for connecting said anchor base to the bone; - a receiver assembly positionable upon said anchor base; - the device further comprises a slide rail associated with one of said anchor base or said receiver assembly; and a projection connected to the other of the anchor base or receiver - assembly associated with said slide rail, insertable in apposition to said slide rail, and slidable into the slide rail so that the receiver assembly may slide laterally relative to the anchor base, characterized in that - the receiver assembly includes a pair of extensions for receiving the stabilizing member downwardly deposited therein. - a stabilizing member; and - a device for connecting the stabilizing member to one or more bones of a patient, comprising: - an anchor base for receiving a bone anchor for connecting said anchor base to the bone; - a receiver assembly positionable upon said anchor base; - an anchor base for receiving a bone anchor for connecting said anchor base to the bone; - a receiver assembly positionable upon said anchor base; - the device further comprises a slide rail associated with one of said anchor base or said receiver assembly; and a projection connected to the other of the anchor base or receiver - assembly associated with said slide rail, insertable in apposition to said slide rail, and slidable into the slide rail so that the receiver assembly may slide laterally relative to the anchor base, characterized in that - the receiver assembly includes a pair of extensions for receiving the stabilizing member downwardly deposited therein.
A humidification device comprising: a heating portion, and a liquid inlet structure adding liquid to the heating portion, wherein the heating portion comprises: an accommodating chamber, and a transition chamber limiting the amount of liquid in the accommodating chamber, and the liquid inlet structure is communicated with the transition chamber and allows the liquid to enter the transition chamber, the liquid inlet structure comprises a liquid inlet pipeline, the liquid inlet pipeline stretches into the transition chamber, and a predetermined interval is provided between an opening of the liquid inlet pipeline and a bottom of the transition chamber, and characterized in that a bottom surface of the transition chamber is lower than that of the accommodating chamber, and the opening of the liquid inlet pipeline is lower than the bottom surface of the accommodating chamber, wherein the humidification device is configured to stop the liquid in the liquid inlet pipeline from flowing into the transition chamber when a liquid level of the transition chamber at least is flush with the opening of the liquid inlet pipeline. a heating portion, and a liquid inlet structure adding liquid to the heating portion, wherein the heating portion comprises: an accommodating chamber, and a transition chamber limiting the amount of liquid in the accommodating chamber, and an accommodating chamber, and a transition chamber limiting the amount of liquid in the accommodating chamber, and the liquid inlet structure is communicated with the transition chamber and allows the liquid to enter the transition chamber, the liquid inlet structure comprises a liquid inlet pipeline, the liquid inlet pipeline stretches into the transition chamber, and a predetermined interval is provided between an opening of the liquid inlet pipeline and a bottom of the transition chamber, and characterized in that a bottom surface of the transition chamber is lower than that of the accommodating chamber, and the opening of the liquid inlet pipeline is lower than the bottom surface of the accommodating chamber, wherein the humidification device is configured to stop the liquid in the liquid inlet pipeline from flowing into the transition chamber when a liquid level of the transition chamber at least is flush with the opening of the liquid inlet pipeline.
Method for reading information from a one- or multi-dimensional coding field, the information being stored within boundaries of the coding field, and the information being available in the one- or multi-dimensional coding field by means of a magnetic and/or magnetisable medium, and a magnetically sensitive sensor device being used to read the information, comprising the steps of: a) locally bringing together the one- or multi-dimensional coding field and the sensor device to a distance (d) less than or equal to a maximum sensing distance (d max); b) orientating the sensor device relative to the coding field such that a sensor device field of vision captures at least one part of a portion of the one- or multi-dimensional coding field, which portion contains all the required information to be sensed; c) sensing all the required information either at once or sequentially in at least one suitable orientation position using the sensor device in at least one or more point captures, line captures and/or at least one matrix capture for all the required information that is to be sensed; d) the required data being captured during the capture-reading operation in such a way that no relative readout movement of a point sensor, line sensor or matrix sensor of the sensor device relative to the coding field is performed, characterised in that a bias field is generated along at least one sensor device field of vision limit at least after the orientation and before the sensing, said bias field acting on the magnetic and/or magnetisable material. a) locally bringing together the one- or multi-dimensional coding field and the sensor device to a distance (d) less than or equal to a maximum sensing distance (d max); b) orientating the sensor device relative to the coding field such that a sensor device field of vision captures at least one part of a portion of the one- or multi-dimensional coding field, which portion contains all the required information to be sensed; c) sensing all the required information either at once or sequentially in at least one suitable orientation position using the sensor device in at least one or more point captures, line captures and/or at least one matrix capture for all the required information that is to be sensed; d) the required data being captured during the capture-reading operation in such a way that no relative readout movement of a point sensor, line sensor or matrix sensor of the sensor device relative to the coding field is performed, characterised in that a bias field is generated along at least one sensor device field of vision limit at least after the orientation and before the sensing, said bias field acting on the magnetic and/or magnetisable material.
An optical coupler device, comprising: an optical waveguide having a first edge and an opposing second edge that extend in a direction substantially parallel to a propagation direction of an input light beam injected into the optical waveguide, the optical waveguide having a waveguide width between the first and second edges (122, 124); a grating structure on a portion of the optical waveguide, the grating structure having a first side and an opposing second side, the first and second sides of the grating structure extending in the same direction as the first and second edges (122, 124) of the optical waveguide, the grating structure having a grating width between the first and second sides, wherein the grating width is less than the waveguide width; and an optical slab that adjoins with the first side of the grating structure, the optical slab in optical communication with an output of the grating structure; wherein the grating structure includes an array of grating lines that are angled with respect to the propagation direction of the input light beam, the grating lines configured to diffract the input light beam into the optical slab at an angle with respect to the propagation direction of the input light beam, such that a diffracted light beam is output from the optical slab. an optical waveguide having a first edge and an opposing second edge that extend in a direction substantially parallel to a propagation direction of an input light beam injected into the optical waveguide, the optical waveguide having a waveguide width between the first and second edges (122, 124); a grating structure on a portion of the optical waveguide, the grating structure having a first side and an opposing second side, the first and second sides of the grating structure extending in the same direction as the first and second edges (122, 124) of the optical waveguide, the grating structure having a grating width between the first and second sides, wherein the grating width is less than the waveguide width; and an optical slab that adjoins with the first side of the grating structure, the optical slab in optical communication with an output of the grating structure; wherein the grating structure includes an array of grating lines that are angled with respect to the propagation direction of the input light beam, the grating lines configured to diffract the input light beam into the optical slab at an angle with respect to the propagation direction of the input light beam, such that a diffracted light beam is output from the optical slab.
A production method for a composition containing non-polymer catechins, comprising the following step after the following step: a step of bringing tea leaves into contact with an aqueous solution having a Brix of from 0.2% to 1.0% at from 80°C to 100°, and a step of extracting the tea leaves after the step with water at from 50°C to 100°C. a step of bringing tea leaves into contact with an aqueous solution having a Brix of from 0.2% to 1.0% at from 80°C to 100°, and a step of extracting the tea leaves after the step with water at from 50°C to 100°C.
Oil sensor comprising an elongated crystal and a holder to which the elongated crystal is fastened, wherein the elongated crystal is made of a material that is transparent to light in the infrared spectrum and which has a refractive index greater than the refractive index of the oil to be examined, whereby a light source is provided in the holder at a first end of the elongated crystal for transmitting light in the infrared spectrum in the elongated crystal, and detection means are provided in the holder at a second end of the elongated crystal for measuring the intensity of the light, which during the passage through the elongated crystal undergoes total reflection at least four times in succession at a boundary plane in a contact zone where the elongated crystal comes into contact with the oil to be examined, characterised in that the oil sensor is further provided with at least one temperature sensor arranged to determine the temperature of at least one of the components of the oil sensor, in that the part of the light source that can emit light can be heated to a temperature of more than 400°C in order to emit light, and in that the elongated crystal is tubular, wherein the ratio of the inside diameter to the outside diameter of the tubular elongated crystal is between 0.3 and 0.9.
A method for manufacturing a data carrier having an indicator in the form of patterns, letters, numbers or images that is recognizable in the infrared spectral range and hidden in the visible spectral range, comprising the steps of: making available a data carrier having a data carrier substrate, a background layer formed by at least one printing ink and a marking layer applied above the background layer, containing an IR-absorbing component and being produced by printing technology, wherein the color or the colors of the background layer differs or differ from the color of the marking layer; applying laser radiation to the data carrier, so that in the marking layer the indicator that is recognizable in the infrared spectral range is produced by removal of the IR-absorbing component, and the color change of the marking layer in the indicator region that is caused by the laser treatment and is recognizable in the visible spectral range is disguised by the background layer disposed thereunder, characterized in that the background layer and the marking layer are structured and that the marking layer is formed by an intaglio printed layer. making available a data carrier having a data carrier substrate, a background layer formed by at least one printing ink and a marking layer applied above the background layer, containing an IR-absorbing component and being produced by printing technology, wherein the color or the colors of the background layer differs or differ from the color of the marking layer; applying laser radiation to the data carrier, so that in the marking layer the indicator that is recognizable in the infrared spectral range is produced by removal of the IR-absorbing component, and the color change of the marking layer in the indicator region that is caused by the laser treatment and is recognizable in the visible spectral range is disguised by the background layer disposed thereunder, characterized in that the background layer and the marking layer are structured and that the marking layer is formed by an intaglio printed layer.
A method for processing a liquid sample containing fibrinogen to separate and concentrate target molecules or particles from the sample, comprising: a. Trapping the said target molecules or particles in a fibrin network by subjecting the sample to thrombin or thrombin-like enzymes to convert at least partially the fibrinogen contained in the said sample into fibrin to form the fibrin network b. Retracting the said fibrin network to form a fibrin clot c. Separating the said fibrin clot from the surrounding sample medium. a. Trapping the said target molecules or particles in a fibrin network by subjecting the sample to thrombin or thrombin-like enzymes to convert at least partially the fibrinogen contained in the said sample into fibrin to form the fibrin network b. Retracting the said fibrin network to form a fibrin clot c. Separating the said fibrin clot from the surrounding sample medium.
A secondary battery comprising an electrode assembly wherein the electrode assembly comprises: a first unit electrode in which a plurality of first electrodes entirely made of a first electrode mixture having a solid shape are connected to each other; a second unit electrode in which a plurality of second electrodes entirely made of a second electrode mixture having a solid shape are connected to each other; a separator interposed between the first unit electrode and the second unit electrode; and an electrode tab comprising a plurality of first electrode tabs provided on the first unit electrode and a plurality of second electrode tabs provided on the second unit electrode, further comprising a control unit configured to control the electrode assembly to be charged, wherein the control unit is configured to adjust a charging rate of each of the first unit electrode and the second unit electrode through the plurality of first electrode tabs and the plurality of second electrode tabs; and wherein, in a process of charging the electrode assembly, when the second unit electrode increases in resistance more than that of the first unit electrode to decrease in charging rate, the control unit is configured to disconnect a portion of the plurality of first electrode tabs provided on the first unit electrode to match the charging rates of the first unit electrode and the second unit electrode so that the first unit electrode increases in resistance to decrease in charging rate. a first unit electrode in which a plurality of first electrodes entirely made of a first electrode mixture having a solid shape are connected to each other; a second unit electrode in which a plurality of second electrodes entirely made of a second electrode mixture having a solid shape are connected to each other; a separator interposed between the first unit electrode and the second unit electrode; and an electrode tab comprising a plurality of first electrode tabs provided on the first unit electrode and a plurality of second electrode tabs provided on the second unit electrode, further comprising a control unit configured to control the electrode assembly to be charged, wherein the control unit is configured to adjust a charging rate of each of the first unit electrode and the second unit electrode through the plurality of first electrode tabs and the plurality of second electrode tabs; and wherein, in a process of charging the electrode assembly, when the second unit electrode increases in resistance more than that of the first unit electrode to decrease in charging rate, the control unit is configured to disconnect a portion of the plurality of first electrode tabs provided on the first unit electrode to match the charging rates of the first unit electrode and the second unit electrode so that the first unit electrode increases in resistance to decrease in charging rate.
A positioning system for an elevator system, the positioning system comprising: a guide rail for guiding an elevator car, the guide rail being formed as a hollow rail, the hollow rail having a plurality of elongated holes in order to be fastened to a guide rail holder; and at least one positioning aid for positioning a nut on the guide rail of the elevator system, the hollow rail having a plurality of elongated holes arranged one behind the other in the longitudinal direction of the hollow rail in order to be fastened to a guide rail holder, the positioning aid comprising: an elongate fastening portion to which at least one nut is fastened and which is dimensioned such that it can be passed through one of the elongated holes together with the at least one nut and moved within the hollow rail; and a holding portion for holding the fastening portion, the holding portion being fastened to one end of the fastening portion and being configured to be wider than the elongated hole, the fastening portion of the positioning aid being dimensioned such that it can be passed through one of the elongated holes together with the at least one nut and moved within the hollow rail, and the holding portion of the positioning aid being configured to be wider than the elongated hole. a guide rail for guiding an elevator car, the guide rail being formed as a hollow rail, the hollow rail having a plurality of elongated holes in order to be fastened to a guide rail holder; and at least one positioning aid for positioning a nut on the guide rail of the elevator system, the hollow rail having a plurality of elongated holes arranged one behind the other in the longitudinal direction of the hollow rail in order to be fastened to a guide rail holder, the positioning aid comprising: an elongate fastening portion to which at least one nut is fastened and which is dimensioned such that it can be passed through one of the elongated holes together with the at least one nut and moved within the hollow rail; and a holding portion for holding the fastening portion, the holding portion being fastened to one end of the fastening portion and being configured to be wider than the elongated hole, an elongate fastening portion to which at least one nut is fastened and which is dimensioned such that it can be passed through one of the elongated holes together with the at least one nut and moved within the hollow rail; and a holding portion for holding the fastening portion, the holding portion being fastened to one end of the fastening portion and being configured to be wider than the elongated hole,