mhurhangee/ep-ind-claims huggingface dataset:
A lens combination, configured for accommodation at least a first light source and a second light source, wherein, the lens combination comprises: a first lens, including a first light incident surface, a first light emergent surface and a first accommodation space located on a side of the first light incident surface and configured for accommodating the first light source; the first light incident surface and the first light emergent surface being of a curved surface shape; and a second lens, including a second light incident surface, a second light emergent surface, and a second accommodation space located on a side of the second light incident surface and configured for accommodating the second light source; the second light incident surface and the second light emergent surface being of a curved surface shape; wherein, an emergent light obtained after an incident light emitted by a first light source passes through the first light incident surface and the first light emergent surface coincides with an emergent light obtained after an incident light emitted by the second light source passes through the second light incident surface and the second light emergent surface, characterized in that on the first light emergent surface and/or the first light incident surface of the first lens, a plurality of flanges parallel to each other are provided on an outer surface of the first light emergent surface or an inner surface of the first light incident surface, and are arranged at intervals in an extending direction of the lens. a first lens, including a first light incident surface, a first light emergent surface and a first accommodation space located on a side of the first light incident surface and configured for accommodating the first light source; the first light incident surface and the first light emergent surface being of a curved surface shape; and a second lens, including a second light incident surface, a second light emergent surface, and a second accommodation space located on a side of the second light incident surface and configured for accommodating the second light source; the second light incident surface and the second light emergent surface being of a curved surface shape; wherein, an emergent light obtained after an incident light emitted by a first light source passes through the first light incident surface and the first light emergent surface coincides with an emergent light obtained after an incident light emitted by the second light source passes through the second light incident surface and the second light emergent surface, characterized in that on the first light emergent surface and/or the first light incident surface of the first lens, a plurality of flanges parallel to each other are provided on an outer surface of the first light emergent surface or an inner surface of the first light incident surface, and are arranged at intervals in an extending direction of the lens.
A non-aqueous electrolyte secondary battery comprising: a positive electrode; a negative electrode; and an electrolyte solution, wherein the negative electrode contains a negative electrode active material that is capable of electrochemically absorbing and desorbing lithium, the negative electrode active material contains a lithium silicate phase and silicon particles that are dispersed in the lithium silicate phase, the lithium silicate phase is an oxide phase that contains lithium, silicon, and oxygen, an atomic ratio O/Si of oxygen relative to silicon in the lithium silicate phase is greater than 2 and less than 4, characterized in that the lithium silicate phase has a composition represented by the following formula: Li 2z SiO 2+z, where z satisfies 0 < z < 1, the electrolyte solution contains a halogenated benzene, and the amount of the halogenated benzene contained in the electrolyte solution is 1 ppm or more and 500 ppm or less in terms of mass ratio. a positive electrode; a negative electrode; and an electrolyte solution, wherein the negative electrode contains a negative electrode active material that is capable of electrochemically absorbing and desorbing lithium, the negative electrode active material contains a lithium silicate phase and silicon particles that are dispersed in the lithium silicate phase, the lithium silicate phase is an oxide phase that contains lithium, silicon, and oxygen, an atomic ratio O/Si of oxygen relative to silicon in the lithium silicate phase is greater than 2 and less than 4, characterized in that the lithium silicate phase has a composition represented by the following formula: Li 2z SiO 2+z, where z satisfies 0 < z < 1, the electrolyte solution contains a halogenated benzene, and the amount of the halogenated benzene contained in the electrolyte solution is 1 ppm or more and 500 ppm or less in terms of mass ratio.
A continuous process for preparing a tablet comprising Compound 1 comprising the steps of: a) mixing Compound 1, a filler, and a disintegrant in a blender to form a blend; b) preparing a granulation solution with water, a binder, and a surfactant; c) feeding the blend from step a) into a continuous twin screw granulator while adding the granulation solution from step b) to produce granules; d) drying the granules from step c) and milling them; e) blending the milled granules from step d) with a filler, disintegrant, and lubricant to form a blend; and f) compressing the blend from step e) into a tablet; wherein Compound 1 is 3-(6-(1-(2,2-difluorobenzo[d][1,3]dioxol-5-yl) cyclopropanecarboxamido)-3-methylpyridin-2-yl)benzoic acid. a) mixing Compound 1, a filler, and a disintegrant in a blender to form a blend; b) preparing a granulation solution with water, a binder, and a surfactant; c) feeding the blend from step a) into a continuous twin screw granulator while adding the granulation solution from step b) to produce granules; d) drying the granules from step c) and milling them; e) blending the milled granules from step d) with a filler, disintegrant, and lubricant to form a blend; and f) compressing the blend from step e) into a tablet;
A receiving apparatus (30, 50), comprising: decoding means for receiving and decoding low density parity check, LDPC, code frames; and decoding control means (41, 61) adapted to control a frequency of said decoding on the basis of conditional information that is an index indicative of a communication condition that influences power consumption in said decoding means by instructing said decoding means to skip decoding of a preset number of consecutively received LDPC code frames and to execute decoding of every (preset number+1)th received LDPC code frame. decoding means for receiving and decoding low density parity check, LDPC, code frames; and decoding control means (41, 61) adapted to control a frequency of said decoding on the basis of conditional information that is an index indicative of a communication condition that influences power consumption in said decoding means by instructing said decoding means to skip decoding of a preset number of consecutively received LDPC code frames and to execute decoding of every (preset number+1)th received LDPC code frame.
A process for preparing a compound of the formula or a salt thereof, comprising the step of contacting with trifluoroacetic acid, triisopropylsilane, EDT, and H 2 O.
An oral and dental care and cleaning agent, containing a) at least one anionic surfactant, b) at least one amphoteric surfactant, c) cleaning particles, characterized in that - said agent contains - based on its weight - 1.6 to 2.2 wt.% anionic surfactant(s), and - the weight ratio of anionic to amphoteric surfactant(s) is ≥ 6, and - the weight ratio of polishing agent(s) to surfactant(s) is in the range of from ≥ 5.25 to ≤ 5.6. a) at least one anionic surfactant, b) at least one amphoteric surfactant, c) cleaning particles, - said agent contains - based on its weight - 1.6 to 2.2 wt.% anionic surfactant(s), and - the weight ratio of anionic to amphoteric surfactant(s) is ≥ 6, and - the weight ratio of polishing agent(s) to surfactant(s) is in the range of from ≥ 5.25 to ≤ 5.6.
A negative-electrode active material, comprising: a silicon oxide that is represented by a general formula SiO x, wherein 0 < x < 2, and a silicate compound that is represented by M a Si b O c ·m ·n(H 2 O), wherein a, b, c, m and n are respectively in ranges of 0 < a ≤ 7, 0 < b ≤ 8, 0 < c ≤ 22, 0 ≤ m ≤ 4 and 0 ≤ n ≤ 10, M contains at least one of Group 3 to 12 transition metal elements in the long-form periodic table. a silicon oxide that is represented by a general formula SiO x, wherein 0 < x < 2, and a silicate compound that is represented by M a Si b O c ·m ·n(H 2 O),
A seat assembly comprising: a lower seat portion including a bottom frame; a seat back including a back frame; a base and wherein said back frame is pivotably coupled to said base and wherein said base includes a first member (92, 94) and a second member (92, 94) each coupled to opposing sides of said back frame; a first and second linkage assembly and wherein said first linkage assembly extends between said first member (92, 94) and each of said bottom frame and said back frame, and said second linkage assembly extends between said second member (92, 94) and each of said bottom frame and said back frame; and an adjustable leg assembly (250, 250) extending from said base to said bottom frame, said first member (92, 94) and said second member (92, 94) each include an upper portion and a forward portion at opposing ends of said first and second members (92, 94) and wherein said leg assembly (250, 250) is coupled to said forward portion and said back frame is coupled to said upper portion and characterized in that, each of said linkage assemblies includes a first link extending between said bottom frame and said back frame and a second link extending between said bottom frame and one of said first and second members (92, 94) of said base and wherein said second link is coupled to one of said first and second members (92, 94) between said upper portion and said forward portion. a lower seat portion including a bottom frame; a seat back including a back frame; a base and wherein said back frame is pivotably coupled to said base and wherein said base includes a first member (92, 94) and a second member (92, 94) each coupled to opposing sides of said back frame; a first and second linkage assembly and wherein said first linkage assembly extends between said first member (92, 94) and each of said bottom frame and said back frame, and said second linkage assembly extends between said second member (92, 94) and each of said bottom frame and said back frame; and an adjustable leg assembly (250, 250) extending from said base to said bottom frame, said first member (92, 94) and said second member (92, 94) each include an upper portion and a forward portion at opposing ends of said first and second members (92, 94) and wherein said leg assembly (250, 250) is coupled to said forward portion and said back frame is coupled to said upper portion and characterized in that, each of said linkage assemblies includes a first link extending between said bottom frame and said back frame and a second link extending between said bottom frame and one of said first and second members (92, 94) of said base and wherein said second link is coupled to one of said first and second members (92, 94) between said upper portion and said forward portion.
A method of producing differentiated eye cells selected from the group consisting of corneal epithelial precursor cells, corneal epithelial cells and stratified corneal epithelium the method comprising: a) culturing pluripotent stem cells in an induction medium comprising a TGF-beta inhibitor, a Wnt inhibitor and a fibroblast growth factor thereby producing eye precursor cells; b) culturing the eye precursor cells obtained in step a) in a cell culture medium comprising one or more supplements selected from the group consisting of epidermal growth factor, hydrocortisone, insulin, isoproterenol, and tri-iodo-thyronine, wherein the medium does not contain any of the following supplements: a TGF-beta inhibitor, a Wnt inhibitor and a fibroblast growth factor, thereby producing corneal epithelial precursor cells, wherein said corneal epithelial precursor cells express corneal epithelial marker p63, said expression being preferably quantified with immunofluorescent staining, and optionally maturating said corneal epithelial precursor cells into mature corneal epithelial cells or into corneal stratified epithelium. a) culturing pluripotent stem cells in an induction medium comprising a TGF-beta inhibitor, a Wnt inhibitor and a fibroblast growth factor thereby producing eye precursor cells; b) culturing the eye precursor cells obtained in step a) in a cell culture medium comprising one or more supplements selected from the group consisting of epidermal growth factor, hydrocortisone, insulin, isoproterenol, and tri-iodo-thyronine, wherein the medium does not contain any of the following supplements: a TGF-beta inhibitor, a Wnt inhibitor and a fibroblast growth factor, thereby producing corneal epithelial precursor cells, wherein said corneal epithelial precursor cells express corneal epithelial marker p63, said expression being preferably quantified with immunofluorescent staining, and optionally maturating said corneal epithelial precursor cells into mature corneal epithelial cells or into corneal stratified epithelium.
A method comprising: receiving, by a proxy node, a Common Public Radio Interface, CPRI, bit stream transmitted by a radio equipment controller, wherein the CPRI bit stream is transmitted within a transmit time interval of the radio equipment controller; oversampling, by the proxy node, the CPRI bit stream to determine whether a hyper frame number synchronization with the radio equipment controller at a common matching link bit rate is achievable, wherein the oversampling comprises attempting to decode the received CPRI bit stream and achieve the hyper frame number synchronization for each of a plurality of link bit rates configured for a oversampling time period during at least one oversampling time interval configured for the proxy node; and upon the proxy node achieving the hyper frame number synchronization with the radio equipment controller at a particular link bit rate, communicating the received CPRI bit stream and the particular link bit rate to another proxy node via a packet-based network. receiving, by a proxy node, a Common Public Radio Interface, CPRI, bit stream transmitted by a radio equipment controller, wherein the CPRI bit stream is transmitted within a transmit time interval of the radio equipment controller; oversampling, by the proxy node, the CPRI bit stream to determine whether a hyper frame number synchronization with the radio equipment controller at a common matching link bit rate is achievable, wherein the oversampling comprises attempting to decode the received CPRI bit stream and achieve the hyper frame number synchronization for each of a plurality of link bit rates configured for a oversampling time period during at least one oversampling time interval configured for the proxy node; and upon the proxy node achieving the hyper frame number synchronization with the radio equipment controller at a particular link bit rate, communicating the received CPRI bit stream and the particular link bit rate to another proxy node via a packet-based network.
A touch device for providing tactile feedback to a user, including: a touch panel including a display operable to providing displaying keys constituting a soft keypad, said touch panel operable to produce a position signal indicative of a position on said display touched by a user-controlled object; a processor operable in response to said position signal to generate a drive signal when said position on said touch panel corresponds to the key location of one of said keys on said soft keypad; and a vibration device operable in response to said drive signal to cause said display to vibrate while said position corresponds to said key location to provide a tactile key location indication to the user, wherein said vibration device is operable to detect damping of said vibration from a reduction in the amplitude of the vibrations by said user-controlled object touching said display and, in response to such detection, the processor is operable to generate a click indicate signal indicative of a click event performed by said user-controlled object on said one of said keys at said key location corresponding to said position on said display. a touch panel including a display operable to providing displaying keys constituting a soft keypad, said touch panel operable to produce a position signal indicative of a position on said display touched by a user-controlled object; a processor operable in response to said position signal to generate a drive signal when said position on said touch panel corresponds to the key location of one of said keys on said soft keypad; and a vibration device operable in response to said drive signal to cause said display to vibrate while said position corresponds to said key location to provide a tactile key location indication to the user, wherein said vibration device is operable to detect damping of said vibration from a reduction in the amplitude of the vibrations by said user-controlled object touching said display and, in response to such detection, the processor is operable to generate a click indicate signal indicative of a click event performed by said user-controlled object on said one of said keys at said key location corresponding to said position on said display.
A dental implant having an anchoring element, with which at least the exterior surface is made of a ceramic material, designed for anchoring same in the jawbone, and is provided with a receptacle for an abutment element, to which a dental prosthesis can be attached, wherein the anchoring element has in its interior a receptacle that is made of a metallic material, is provided with an internal thread and is soldered in the anchoring element by means of a glass solder, this receptacle being in the form of a threaded sleeve for a metallic threaded pin, which is arranged on the abutment element, and wherein the receptacle is inserted into a borehole from the occlusal end of the anchoring element, characterized in that a borehole having a smaller diameter is provided in the cervical end region of the anchoring element, such that excess glass solder can flow out through this borehole during the soldering operation, and at the same time, when the solder solidifies, it seals this borehole.
A current transformer comprising a toroidal magnetic core, said current transformer further comprises: an even number of shielding coils (2 1, 2 2, 2 3, 2 4) which are wound around said toroidal magnetic core, wherein said shielding coils (2 1, 2 2, 2 3, 2 4) are arranged two by two in order to form corresponding couples (3 1, 3 2) and the two shielding coils of each couple are wound on opposite parts of the toroidal magnetic core, the shielding coils (2 1 -2 2, 2 3 -2 4) in each couple (3 1, 3 2) being connected in parallel to establish a respective magnetic flux in each coil, wherein the magnetic flux in a first shielding coil (2 1, 2 3) of each couple (3 1, 3 2,) has an opposite direction with respect to the magnetic flux in a second shielding coil (2 2, 2 4) of each couple (3 1, 3 2), and wherein either said couples (3 1, 3 2) of said shielding coils (2 1, 2 2, 2 3, 2 4) are being connected in series, and said couples (3 1, 3 2) of shielding coils (2 1, 2 2, 2 3, 2 4) constitute a secondary winding of said current transformer, or said couples (3 1, 3 2) of said shielding coils (2 1, 2 2, 2 3, 2 4) are being connected in series and a supplementary winding wound around said core is connected in series with said couples (3 1, 3 2) of shielding coils (2 1, 2 2, 2 3, 2 4), and said couples (3 1, 3 2) of shielding coils (2 1, 2 2, 2 3, 2 4), and said supplementary winding constitute a secondary winding of said current transformer. an even number of shielding coils (2 1, 2 2, 2 3, 2 4) which are wound around said toroidal magnetic core, wherein said shielding coils (2 1, 2 2, 2 3, 2 4) are arranged two by two in order to form corresponding couples (3 1, 3 2) and the two shielding coils of each couple are wound on opposite parts of the toroidal magnetic core, the shielding coils (2 1 -2 2, 2 3 -2 4) in each couple (3 1, 3 2) being connected in parallel to establish a respective magnetic flux in each coil, wherein the magnetic flux in a first shielding coil (2 1, 2 3) of each couple (3 1, 3 2,) has an opposite direction with respect to the magnetic flux in a second shielding coil (2 2, 2 4) of each couple (3 1, 3 2), and wherein either said couples (3 1, 3 2) of said shielding coils (2 1, 2 2, 2 3, 2 4) are being connected in series, and said couples (3 1, 3 2) of shielding coils (2 1, 2 2, 2 3, 2 4) constitute a secondary winding of said current transformer, or said couples (3 1, 3 2) of said shielding coils (2 1, 2 2, 2 3, 2 4) are being connected in series and a supplementary winding wound around said core is connected in series with said couples (3 1, 3 2) of shielding coils (2 1, 2 2, 2 3, 2 4), and said couples (3 1, 3 2) of shielding coils (2 1, 2 2, 2 3, 2 4), and said supplementary winding constitute a secondary winding of said current transformer.
A multi-mode reader instrument, comprising a plurality of sensors capable of detecting signals from one or more taggants on an object, wherein the taggants are independently selected from a microdot, a bar code, a QR code, an RFID tag, an optical compound, a fluorescent compound, a phosphorescent compound, a DNAtaggant, an upconverting phosphor, a chemical dye, a digitized image of at least a part of the object, a radioactive compound, an olfactory compound and a thermal attribute of the object, the one or more taggants comprising an encrypted digital DNA sequence code associated with authentication information of the object.