mhurhangee/ep-ind-claims huggingface dataset:
A method for purifying Antithrombin, comprising the steps of: (a) adsorbing the Antithrombin onto the anion exchange carrier, (b) washing with a buffer containing glycine to wash and remove impurities, and (c) eluting the Antithrombin adsorbed onto the anion exchange carrier by increasing the salt concentration or conductivity of the buffer, or by varying pH of the buffer, wherein the Antithrombin maintains a binding ratio of sialic acid of 70% or more, wherein the binding ratio of sialic acid represents a ratio of the measured number of bound sialic acids to the theoretical maximum number of bound sialic acids in the protein. (a) adsorbing the Antithrombin onto the anion exchange carrier, (b) washing with a buffer containing glycine to wash and remove impurities, and (c) eluting the Antithrombin adsorbed onto the anion exchange carrier by increasing the salt concentration or conductivity of the buffer, or by varying pH of the buffer,
An alloy comprising, by weight, 0.01% to 1% vanadium, 0% to 0.04% carbon, 0% to 8% niobium, 0% to 1% titanium, 0% to 0.04% boron, 0% to 1% tungsten, 0% to 1% tantalum, 0% to 1% hafnium, and 0% to 1% ruthenium, no more than 0.01% hydrogen, no more than 0.01% nitrogen, and no more than 0.02% oxygen, the balance molybdenum and incidental elements, characterized in that the alloy is selected from the group consisting of: - an alloy comprising 0.08% vanadium, 0.01% carbon, and 6.43% niobium; - an alloy comprising 0.42% vanadium, 0.015% carbon, and 0.12% niobium; - an alloy comprising 0.41% vanadium, 0.01% carbon, 0.54% niobium, 0.43% titanium, and 0.02% boron; - an alloy comprising 0.32% vanadium, 0.01% carbon, 0.07% niobium, and 0.02% boron; and - an alloy comprising 0.09% vanadium, 0.01% carbon, 0.41% titanium, and 0.04% boron. - an alloy comprising 0.08% vanadium, 0.01% carbon, and 6.43% niobium; - an alloy comprising 0.42% vanadium, 0.015% carbon, and 0.12% niobium; - an alloy comprising 0.41% vanadium, 0.01% carbon, 0.54% niobium, 0.43% titanium, and 0.02% boron; - an alloy comprising 0.32% vanadium, 0.01% carbon, 0.07% niobium, and 0.02% boron; and - an alloy comprising 0.09% vanadium, 0.01% carbon, 0.41% titanium, and 0.04% boron.
A grain-oriented electrical steel sheet, comprising a groove positioned on a surface of an electrical steel sheet, in a direction crossing the rolling direction, a metal oxide layer positioned on the groove, and characterised by comprising metal oxide-based islands that are discontinuously distributed and separated from the metal oxide layer and positioned below the groove, wherein an average particle diameter of the islands positioned below the groove is 0.5 to 5 μm.
A primer comprising from 5' to 3': a random nucleic acid non-complementary to a target sequence, having 5 to 50 nucleotides in length, wherein the random sequence is located at the 5' end of the primer; a restriction enzyme recognition sequence; and a nucleic acid sequence complementary to the target sequence, wherein the restriction enzyme recognition sequence comprises a modified dNTP in the restriction enzyme recognition sequence and the primer comprises one sequence selected from the group consisting of SEQ ID. NOs: 1, 3, 9, 11, 13, 15, 17, 19, 21, 23, 25, 27, 29, 31, 33, 74, 76, 78, 80, 82, 84, 86, 151, 153, 155, 156, 159, 161, 163, 164, 166, 168, 170, 204, 205, 207, 218, 220 and 222. a random nucleic acid non-complementary to a target sequence, having 5 to 50 nucleotides in length, wherein the random sequence is located at the 5' end of the primer; a restriction enzyme recognition sequence; and a nucleic acid sequence complementary to the target sequence, wherein the restriction enzyme recognition sequence comprises a modified dNTP in the restriction enzyme recognition sequence and the primer comprises one sequence selected from the group consisting of SEQ ID. NOs: 1, 3, 9, 11, 13, 15, 17, 19, 21, 23, 25, 27, 29, 31, 33, 74, 76, 78, 80, 82, 84, 86, 151, 153, 155, 156, 159, 161, 163, 164, 166, 168, 170, 204, 205, 207, 218, 220 and 222.
A computer-implemented method for computing mobility insight data related to shared vehicles for a point of interest comprising: retrieving shared vehicle data for the POI, wherein the shared vehicle data indicates one or more shared vehicle events that have occurred, that are occurring at a given time, or a combination thereof within a threshold proximity of the POI; processing the shared vehicle data to determine mobility insight data for the POI, wherein the mobility insight data includes a shared vehicle usage pattern, a shared vehicle availability pattern, or a combination thereof under one or more contexts for travel to or from the POI, wherein the one or more contexts for travel include one or more temporal and/or contextual parameters for which the mobility insight data is requested; and presenting the mobility insight data in a location-based user interface. retrieving shared vehicle data for the POI, wherein the shared vehicle data indicates one or more shared vehicle events that have occurred, that are occurring at a given time, or a combination thereof within a threshold proximity of the POI; processing the shared vehicle data to determine mobility insight data for the POI, wherein the mobility insight data includes a shared vehicle usage pattern, a shared vehicle availability pattern, or a combination thereof under one or more contexts for travel to or from the POI, wherein the one or more contexts for travel include one or more temporal and/or contextual parameters for which the mobility insight data is requested; and presenting the mobility insight data in a location-based user interface.
A device comprising: one or more displays configured to render a three-dimensional environment; at least one processor; and memory storing instructions that, when executed by the at least one processor, cause the device to perform operations comprising: rendering, on the displays, by a first process, a first three-dimensional scene; receiving an indication that the first three-dimensional scene is to be replaced with a second three-dimensional scene; receiving graphics data representative of a transition to the second three-dimensional scene, wherein the graphics data is received from a second process distinct from the first process and configured to render the second three-dimensional scene; transitioning from the first three-dimensional scene to the second three-dimensional scene using the graphics data; and transitioning control of rendering the second three-dimensional scene to the second process. one or more displays configured to render a three-dimensional environment; at least one processor; and memory storing instructions that, when executed by the at least one processor, cause the device to perform operations comprising: rendering, on the displays, by a first process, a first three-dimensional scene; receiving an indication that the first three-dimensional scene is to be replaced with a second three-dimensional scene; receiving graphics data representative of a transition to the second three-dimensional scene, wherein the graphics data is received from a second process distinct from the first process and configured to render the second three-dimensional scene; transitioning from the first three-dimensional scene to the second three-dimensional scene using the graphics data; and transitioning control of rendering the second three-dimensional scene to the second process. rendering, on the displays, by a first process, a first three-dimensional scene; receiving an indication that the first three-dimensional scene is to be replaced with a second three-dimensional scene; receiving graphics data representative of a transition to the second three-dimensional scene, wherein the graphics data is received from a second process distinct from the first process and configured to render the second three-dimensional scene; transitioning from the first three-dimensional scene to the second three-dimensional scene using the graphics data; and transitioning control of rendering the second three-dimensional scene to the second process.
On-load tap changer comprising - a first fixed contact, - a second fixed contact, - a first movable contact, which can contact each of the fixed contacts, - a second movable contact, which can contact each of the fixed contacts, - a main branch with a switching element, wherein the main branch connects the first movable contact with a load diverter and the switching element is configured as an 'off' switch, - an auxiliary branch with a varistor, wherein the auxiliary branch connects the second movable contact with the load diverter, wherein - the on-load tap changer has such a configuration that when switching over from the first fixed contact to the second fixed contact takes place the first movable contact is actuated only when the second movable contact has reached the second fixed contact, and a load current I L is switched over from the main branch to the auxiliary branch, wherein - when switching the load current I L in the auxiliary branch is limited by means of the varistor and no circular current arises during the switching-over process. - a first fixed contact, - a second fixed contact, - a first movable contact, which can contact each of the fixed contacts, - a second movable contact, which can contact each of the fixed contacts, - a main branch with a switching element, wherein the main branch connects the first movable contact with a load diverter and the switching element is configured as an 'off' switch, - an auxiliary branch with a varistor, wherein the auxiliary branch connects the second movable contact with the load diverter, - the on-load tap changer has such a configuration that when switching over from the first fixed contact to the second fixed contact takes place the first movable contact is actuated only when the second movable contact has reached the second fixed contact, and a load current I L is switched over from the main branch to the auxiliary branch, - when switching the load current I L in the auxiliary branch is limited by means of the varistor and no circular current arises during the switching-over process.
An electromagnetic booster for wireless charging, comprising: a magnetic sheet including a first magnetic sheet member located at an edge portion and a second magnetic sheet member located at a central portion and located to contact the first magnetic sheet member, a coil part disposed on the magnetic sheet, wherein the first magnetic sheet member and the second magnetic sheet member have different permeability rates from each other, wherein the first magnetic sheet member is disposed on a same plane as the second magnetic sheet member, wherein the first magnetic sheet member and the second magnetic sheet member have different thicknesses. a magnetic sheet including a first magnetic sheet member located at an edge portion and a second magnetic sheet member located at a central portion and located to contact the first magnetic sheet member, a coil part disposed on the magnetic sheet, wherein the first magnetic sheet member and the second magnetic sheet member have different permeability rates from each other, wherein the first magnetic sheet member is disposed on a same plane as the second magnetic sheet member, wherein the first magnetic sheet member and the second magnetic sheet member have different thicknesses.
Device comprising a first and a second tool (2, 3) which are each arranged in a storage position in a housing and are displaceable therefrom into a use position, the tools (2, 3) each being movable in parallel with one another in a chamber (9, 10) having an outlet opening (9', 10') for the tool (2, 3), and comprising a locking device (4, 5, 6) which can be brought into a locking position when one of the two tools (2, 3) is displaced, wherein a locking body of the locking device which is attached to the housing so as to be pivotable about a pivot axis is positively controlled, when one of the two tools (2, 3) is displaced, so as to assume a locked position that locks the displaceability of the relevant other tool (2, 3), and is arranged in a window of a partition between the two chambers (9, 10) and can alternately dip into one of the two chambers (9,10) such that a locking shoulder (5,6) lies in the path of movement of a counter shoulder (14, 15) of a tool carrier (7, 8), characterised in that the tool carriers (7, 8) have different lengths and the two locking shoulders (5, 6) are spaced apart from one another by the amount by which the lengths of the two tool carriers (7, 8) differ.
A moisture measuring system adapted to measure moisture in structural materials, in that the system comprises a moisture measuring device and a reading device wherein the moisture measuring device comprises: - a body part comprising an upper part and an embeddable tube, and further comprising a separated space with moisture conveying medium; - said body part provided with guiding wings comprising horizontal and vertical sections provided adjacent the upper part; - at least one hole or opening in the body part, - measuring means comprising a sensor for measuring humidity and temperature in said separated space and electronics for transferring data wirelessly between the measuring means and said reading device; both the sensor and the electronics being provided in said body part of said moisture measuring device; - wherein the sensor is placed adjacent the hole or opening; - wherein the hole or opening is placed on a selected height of the tubular part such that the distance between the hole/opening and the top surface of the device is equal to the measuring depth in said structural materials; wherein said body part is adapted to be embedded in the material to be measured during casting so that the top surface of the device is on the level of the cast surface, and wherein said measuring means is functionally connected to the body part, and said data transfer being provided in a non-invasive manner so that measured data may be transferred to said reading device through said wireless link. - a body part comprising an upper part and an embeddable tube, and further comprising a separated space with moisture conveying medium; - said body part provided with guiding wings comprising horizontal and vertical sections provided adjacent the upper part; - at least one hole or opening in the body part, - measuring means comprising a sensor for measuring humidity and temperature in said separated space and electronics for transferring data wirelessly between the measuring means and said reading device; both the sensor and the electronics being provided in said body part of said moisture measuring device; - wherein the sensor is placed adjacent the hole or opening; - wherein the hole or opening is placed on a selected height of the tubular part such that the distance between the hole/opening and the top surface of the device is equal to the measuring depth in said structural materials;
A multi-core optical fiber, comprising two or more cores, wherein each of the cores has one propagation mode in a wavelength λ of 1550 nm of a desired communication wavelength band, and an inter-mode coupling coefficient κ between adjacent cores which is a minimum interval among the cores is κ min or more and κ max or less, and a normalized frequency V value is in a range from 2 to 2.3, where κ min = 0.73 m -1 and κ max = 120 m -1 in conditions of the multi-core optical fiber of a bend radius of 140 mm, a twisting rate of 4π rad/m or more, and the wavelength of 1550 nm, wherein a minimum core interval A that is an interval between the adjacent cores is in a range satisfying Math. C1, [Math. C1] a B ln κ min a A Δ > Λ > a B ln κ max a A Δ A = − 8.7812 + 5.51 V B = 1.0027 − 1.188 V V = a 2 π λ n 1 2 Δ where a represents a radius of the cores, Δ represents a relative index difference of the cores and n 1 represents a refractive index of the cores, wherein the number of lengths between adjacent cores may be plural, and the shortest length of the lengths is used as A, wherein a cut-off wavelength is 1.26 μm or less, a bending loss is 0.1 dB/100 turn or less at a wavelength of 1625 nm and a bend radius of 30 mm, and a mode field diameter is 8.2 μm or more and 9.6 μm or less at a wavelength of 1310 nm. wherein each of the cores has one propagation mode in a wavelength λ of 1550 nm of a desired communication wavelength band, and an inter-mode coupling coefficient κ between adjacent cores which is a minimum interval among the cores is κ min or more and κ max or less, and a normalized frequency V value is in a range from 2 to 2.3, where κ min = 0.73 m -1 and κ max = 120 m -1 in conditions of the multi-core optical fiber of a bend radius of 140 mm, a twisting rate of 4π rad/m or more, and the wavelength of 1550 nm, wherein a minimum core interval A that is an interval between the adjacent cores is in a range satisfying Math. C1, [Math. C1] a B ln κ min a A Δ > Λ > a B ln κ max a A Δ A = − 8.7812 + 5.51 V B = 1.0027 − 1.188 V V = a 2 π λ n 1 2 Δ where a represents a radius of the cores, Δ represents a relative index difference of the cores and n 1 represents a refractive index of the cores, wherein the number of lengths between adjacent cores may be plural, and the shortest length of the lengths is used as A,
An ink for forming a scintillator product, the ink comprising: a phenylated siloxane polymer having at least one functional group per molecule for crosslinking; a filler having a refractive index about matching a refractive index of the phenylated siloxane polymer, wherein the refractive indices are within about 5 % of one another; a rheology modifier; and at least one fluorescent dye. a phenylated siloxane polymer having at least one functional group per molecule for crosslinking; a filler having a refractive index about matching a refractive index of the phenylated siloxane polymer, wherein the refractive indices are within about 5 % of one another; a rheology modifier; and at least one fluorescent dye.
A composite body obtained by contact-bonding a thermoplastic resin and a metal, characterized in that the thermoplastic resin is a polyether amide elastomer which has a polyamide unit as a hard segment and a polyether unit as a soft segment, the soft segment is an ABA type triblock polyether represented by the following formula, wherein x denotes 1 to 20, y denotes 4 to 50, and z denotes 1 to 20, and the metal is a surface-treated metal or surface-untreated metal.
A mobile terminal comprising: a display configured to display a first image and a second image to generate a 3D image including a plurality of 3D objects, one of the first and second images being a left eye image and the other being a right eye image, each of the first and second images including a plurality of objects corresponding to the plurality of 3D objects; and a controller configured to change a magnification of the 3D image that includes the first and second images by scaling the first and second images when an input for enlarging or reducing the 3D image is received, and to correct the first and second scaled images, wherein the controller corrects the first and second scaled images by selecting a central object of the plurality of 3D objects in the first or second scaled images, moving the central object to establish zero parallax such that a binocular disparity of the central object of the plurality of 3D objects is within the prescribed range of disparity and moving other objects of the plurality of 3D objects according to the central object of the plurality of 3D objects, and by interpolating to fill a hole region created by moving the central object and other objects of the plurality of 3D objects in the first and second scaled images, and wherein the controller controls the display to display the corrected first and second scaled images. a display configured to display a first image and a second image to generate a 3D image including a plurality of 3D objects, one of the first and second images being a left eye image and the other being a right eye image, each of the first and second images including a plurality of objects corresponding to the plurality of 3D objects; and a controller configured to change a magnification of the 3D image that includes the first and second images by scaling the first and second images when an input for enlarging or reducing the 3D image is received, and to correct the first and second scaled images, wherein the controller corrects the first and second scaled images by selecting a central object of the plurality of 3D objects in the first or second scaled images, moving the central object to establish zero parallax such that a binocular disparity of the central object of the plurality of 3D objects is within the prescribed range of disparity and moving other objects of the plurality of 3D objects according to the central object of the plurality of 3D objects, and by interpolating to fill a hole region created by moving the central object and other objects of the plurality of 3D objects in the first and second scaled images, and wherein the controller controls the display to display the corrected first and second scaled images.
Device for measuring biosignals to detect sleep-associated breathing disorders, comprising a housing which has an upper face and a lower face, - comprising at least one first interface (6a, 6b) in the region of the housing, set up for linking sensor means, and comprising a second interface set up for connection to a PC, - comprising a display means in the region of the housing, set up to display measurement values, - comprising an operating means set up for controlling the operation of the device, - comprising an attachment means set up for attaching the housing to a patient, the at least one first interface, the display means and the operating means being arranged in the region of the upper face or of lateral sub-regions of the housing which connect the upper face and the lower face, the device having an arithmetic unit for processing measurement information from the sensor means, which unit is arranged in the housing to process the measurement signals, and having a memory which is connected to the arithmetic unit to display and store the measurement information, the sensor means being a pulse oximetry sensor and a diagnostic nasal cannula for detecting the respiratory flow or the oxygen saturation of the blood and the pulse rate of the patient, the arithmetic unit and the memory being set up to store the measurement data during a measurement and, in parallel, to display them at least in part on the integrated display, the second interface being set up to transfer the data stored in the memory onto a PC where the signals can be viewed and edited using a PC software, characterised in that the device is set up to be configured, via the second interface by way of a PC, for an automatic measurement, in such a way that the device switches on and starts the measurement automatically at a set time. - comprising at least one first interface (6a, 6b) in the region of the housing, set up for linking sensor means, and comprising a second interface set up for connection to a PC, - comprising a display means in the region of the housing, set up to display measurement values, - comprising an operating means set up for controlling the operation of the device, - comprising an attachment means set up for attaching the housing to a patient,