mhurhangee/ep-ind-claims huggingface dataset:
A process of preparing a compound of Formula I: comprising: reacting a compound of Formula II: with n-BuLi and TMEDA at -78 °C in a polar aprotic solvent to afford a compound of Formula III: quenching said compound of Formula III with gaseous carbon dioxide to afford a compound of Formula IV: and treating said compound of Formula IV with HCl to afford the compound of Formula I, wherein said method is performed using continuous flow reaction conditions, and wherein the reaction temperature is maintained at less than -65 °C during said quenching with gaseous carbon dioxide. reacting a compound of Formula II: with n-BuLi and TMEDA at -78 °C in a polar aprotic solvent to afford a compound of Formula III: quenching said compound of Formula III with gaseous carbon dioxide to afford a compound of Formula IV: and treating said compound of Formula IV with HCl to afford the compound of Formula I, wherein said method is performed using continuous flow reaction conditions, and wherein the reaction temperature is maintained at less than -65 °C during said quenching with gaseous carbon dioxide.
A computer implemented method for training a neural network initialised with parameters θ to output estimated uncorrupted visual data from input corrupted visual data, and using a training set of corrupted visual data with a training objective to maximise a term of the form: wherein x is input corrupted visual data from the training set of corrupted visual data, ŷ(x; θ) is the estimated uncorrupted visual data output when the neural network with parameters θ is applied to the input visual data x, and p is a probability distribution of uncorrupted visual data in an uncorrupted reference dataset; wherein the method is an iterative method with each iteration comprising the steps of: inputting corrupted visual data from the training set of corrupted visual data into the neural network; generating, by the neural network, an estimated uncorrupted visual data set, the estimated uncorrupted visual data set comprising output estimated uncorrupted visual data corresponding to the input corrupted visual data; comparing the probability distribution of visual data in the estimated uncorrupted visual data set to the probability distribution p of the visual data in the uncorrupted reference dataset by determining differences between one or more statistical characteristics of visual data in the two datasets; and modifying one or more of the parameters θ of the neural network to reduce differences between said one or more statistical characteristics, wherein the visual data is image or video data and the uncorrupted reference data set does not correspond to an uncorrupted version of the set of corrupted visual data. inputting corrupted visual data from the training set of corrupted visual data into the neural network; generating, by the neural network, an estimated uncorrupted visual data set, the estimated uncorrupted visual data set comprising output estimated uncorrupted visual data corresponding to the input corrupted visual data; comparing the probability distribution of visual data in the estimated uncorrupted visual data set to the probability distribution p of the visual data in the uncorrupted reference dataset by determining differences between one or more statistical characteristics of visual data in the two datasets; and modifying one or more of the parameters θ of the neural network to reduce differences between said one or more statistical characteristics, wherein the visual data is image or video data and the uncorrupted reference data set does not correspond to an uncorrupted version of the set of corrupted visual data.
An electrically erasable programmable read only memory (EEPROM) device comprising: - a P-substrate; - a N-well formed in said P-substrate, wherein said N-well is operable to be biased to a first voltage; - at least two adjacent P-wells (301, 302; 301a, 302a) formed in said N-well, wherein each P-well (301, 302; 301a, 302a) is operable to be biased individually to a second and third voltage, respectively independent from said N-well and each P-well (301, 302; 301a, 302a) comprises a memory segment comprising a matrix of memory cells (401..408; 409..416) arranged in M columns and N rows, wherein each memory cell (401..408; 409..416) comprises a single transistor memory cell (401-1..401-n;..415-1..416-n) and each column comprises an associated source select transistor (501..508; 509..516) coupled with each memory cell (401..408; 409..416) of said associated column; - for each P-well (301, 302; 301a, 302a), M bit lines (BL1..BL8; BL9..BL16) coupled to respective memory cells (401..408; 409..416) of each column of said P-well (301, 302; 301a, 302a); - N word lines (WL1..WLn), each word line (WL1..WLn) being coupled to respective memory cells (401..408; 409..416) of an associated row; wherein the at least two adjacent P-wells (301, 302; 301a, 302a) share the same N word lines (WL1..WLn). - a P-substrate; - a N-well formed in said P-substrate, wherein said N-well is operable to be biased to a first voltage; - at least two adjacent P-wells (301, 302; 301a, 302a) formed in said N-well, wherein each P-well (301, 302; 301a, 302a) is operable to be biased individually to a second and third voltage, respectively independent from said N-well and each P-well (301, 302; 301a, 302a) comprises a memory segment comprising a matrix of memory cells (401..408; 409..416) arranged in M columns and N rows, wherein each memory cell (401..408; 409..416) comprises a single transistor memory cell (401-1..401-n;..415-1..416-n) and each column comprises an associated source select transistor (501..508; 509..516) coupled with each memory cell (401..408; 409..416) of said associated column; - for each P-well (301, 302; 301a, 302a), M bit lines (BL1..BL8; BL9..BL16) coupled to respective memory cells (401..408; 409..416) of each column of said P-well (301, 302; 301a, 302a); - N word lines (WL1..WLn), each word line (WL1..WLn) being coupled to respective memory cells (401..408; 409..416) of an associated row; wherein the at least two adjacent P-wells (301, 302; 301a, 302a) share the same N word lines (WL1..WLn).
A sheet separation device configured to separate a non-bonding portion of a two-ply sheet in which two sheets (P1, P2) are overlapped and bonded together at a bonding portion of the two-ply sheet, the sheet separation device comprising: a winding roller configured to rotate and wind the two-ply sheet, the winding roller comprising a receiving portion; a conveyance roller pair configured to convey the two-ply sheet toward the winding roller; a separation claw configured to be inserted into a gap between the two sheets (P1, P2) at a position between the winding roller and the conveyance roller pair, the separation claw being disposed in a space that is bounded by an imaginary plane (S 1) and includes the winding roller, the imaginary plane passing through a nip of the conveyance roller pair and a winding start position at which the two-ply sheet starts to be wound around the winding roller; and characterized in that it comprises a gripper configured to grip one end of the two-ply sheet, that is opposite an end at which the bonding portion is formed, with the receiving portion at the winding start position. a winding roller configured to rotate and wind the two-ply sheet, the winding roller comprising a receiving portion; a conveyance roller pair configured to convey the two-ply sheet toward the winding roller; a separation claw configured to be inserted into a gap between the two sheets (P1, P2) at a position between the winding roller and the conveyance roller pair, the separation claw being disposed in a space that is bounded by an imaginary plane (S 1) and includes the winding roller, the imaginary plane passing through a nip of the conveyance roller pair and a winding start position at which the two-ply sheet starts to be wound around the winding roller; and characterized in that it comprises a gripper configured to grip one end of the two-ply sheet, that is opposite an end at which the bonding portion is formed, with the receiving portion at the winding start position.
A polymer particle dispersion in an aqueous medium comprising an emulsion polymerized polymer and a macro initiator covalently bonded to the emulsion polymerized polymer, wherein the macro initiator comprises a hydrophilic, pH-insensitive monomer in reacted form; and the emulsion polymerized polymer is comprised of at least one additional ethylenically unsaturated monomer in polymerized form, wherein said polymer has the formula R-{[ x y]-[ m] p -Y} n or 1, where A is the hydrophilic, pH-insensitive monomer, B is a comonomer, C is at least one ethylenically unsaturated monomer, Y is a terminal group, x≥1, y≥0, m≥1, n≥2, and p≥1, wherein if p>1 each C segment has a distinct composition, and A and B may appear in any order or sequence within the living macro initiator, and R is of the formula or: wherein R 1 and R 3, identical or different, represent a linear or branched alkyl group, with the number of carbon atoms from 1 to 3; R 2 represents a hydrogen atom or a linear or branched alkyl group having a number of carbon atoms from 1 to 8, a phenyl group, an alkaline metal ion, or an ammonium ion; and Z represents an aryl group or a group of the formula Z 1 -[X-C] n, in which, Z 1 represents a polyfunctional structure where X is an oxygen atom, a nitrogen atom carrying a carbon group, a hydrogen atom, or a sulfur atom, said ethylenically unsaturated monomer being selected from the group consisting of (meth)acrylates, styrenes, (meth)acrylamides, (meth)acrylonitriles, and mixtures thereof, and wherein said macroinitiator comprises at least one water-soluble salt of a monomer comprising an acryloyl group and a sulfonic acid group in polymerized form. wherein R 1 and R 3, identical or different, represent a linear or branched alkyl group, with the number of carbon atoms from 1 to 3; R 2 represents a hydrogen atom or a linear or branched alkyl group having a number of carbon atoms from 1 to 8, a phenyl group, an alkaline metal ion, or an ammonium ion; and Z represents an aryl group or a group of the formula Z 1 -[X-C] n, in which, Z 1 represents a polyfunctional structure where X is an oxygen atom, a nitrogen atom carrying a carbon group, a hydrogen atom, or a sulfur atom, said ethylenically unsaturated monomer being selected from the group consisting of (meth)acrylates, styrenes, (meth)acrylamides, (meth)acrylonitriles, and mixtures thereof, and wherein said macroinitiator comprises at least one water-soluble salt of a monomer comprising an acryloyl group and a sulfonic acid group in polymerized form.
A combination of a holder for a stoma dressing and a stoma dressing, said holder comprising an envelope composed of two layers (11, 12), which layers are joined at their circumferential edges and not joined at one circumferential edge, which envelope encloses a space, in which space the stoma dressing is placed, characterized in that the holder also comprises heating means for heating the stoma dressing, wherein the heating means comprise one or more heating wires (25-25'-250), which are worked into the envelope over the entire inner layer area of the envelope in the form of several envelopes or windings, thereby realising a maximum area of contact between the inner layer of the envelope and the stoma dressing being placed in the space.
Method to shim a magnetic field inside an MR apparatus, whereby a subject is placed inside the MR apparatus, whereby a magnetic field heterogeneity distribution of the magnetic field is measured with the MR apparatus, whereby a shim current is determined based on the measured magnetic field heterogeneity distribution in a target region-of-interest, whereby the shim coil (3, 4) is driven with the shim current, whereby a physiological characteristic of the subject is measured and used to determine the shim current and whereby the physiological characteristic is measured and the shim current is determined and updated while diagnostic data is acquired with the MR apparatus characterized in that the measured physiological characteristic is used to determine the target region-of-interest.
A lid assembly comprising: a lid for a container, the lid having an opening configured to receive liquid from the container; a slider having a handle; and wherein the slider is configured to slide along the lid; wherein the slider is configured to move between a closed position where the slider covers the opening to aid in preventing spilling of contents of the container and an opened position where the slider uncovers the opening such that the content of the container can be consumed; wherein the slider is configured to lock into place in both the closed position and the opened position; wherein the slider is configured to be secured on the lid and is configured to be removable from the lid; wherein the slider and the lid comprise a series of disc magnets (872, 874A, 874B) for locking the slider in both the closed position and in the opened position and for maintaining the slider on the lid; wherein the series of disc magnets include a first clamping and positioning magnet, a second clamping and positioning magnet, a third clamping and positioning magnet and wherein the first clamping and positioning magnet is configured to interact with the second clamping and positioning magnet to maintain the slider in the opened position and the first clamping and positioning magnet is configured to interact with the third clamping and positioning magnet to maintain the slider in the closed position. a lid for a container, the lid having an opening configured to receive liquid from the container; a slider having a handle; and wherein the slider is configured to slide along the lid; wherein the slider is configured to move between a closed position where the slider covers the opening to aid in preventing spilling of contents of the container and an opened position where the slider uncovers the opening such that the content of the container can be consumed; wherein the slider is configured to lock into place in both the closed position and the opened position; wherein the slider is configured to be secured on the lid and is configured to be removable from the lid; wherein the slider and the lid comprise a series of disc magnets (872, 874A, 874B) for locking the slider in both the closed position and in the opened position and for maintaining the slider on the lid; wherein the series of disc magnets include a first clamping and positioning magnet, a second clamping and positioning magnet, a third clamping and positioning magnet and wherein the first clamping and positioning magnet is configured to interact with the second clamping and positioning magnet to maintain the slider in the opened position and the first clamping and positioning magnet is configured to interact with the third clamping and positioning magnet to maintain the slider in the closed position.
A medical device, comprising: a valve stem (106; 206; 306; 406; 506; 606; 706; 1506; 1706); an interface member (104; 404; 504; 604; 704; 1504; 1604) including a proximal end (145; 1545; 1645) having a proximal surface and a first connector portion and a second connector portion, the first connector portion coupleable to the valve stem (106; 206; 306; 406; 506; 606; 706; 1506; 1706); and a first indicator (108; 208; 308; 408-1; 508-1; 608-1; 708-1) including at least first and second raised surfaces (112-1, 112-2) on the proximal surface of the interface member (104; 404; 504; 604; 704; 1504; 1604), wherein the first raised surface includes a symbol and the second raised surface includes a geometric shape surrounding the symbol. a valve stem (106; 206; 306; 406; 506; 606; 706; 1506; 1706); an interface member (104; 404; 504; 604; 704; 1504; 1604) including a proximal end (145; 1545; 1645) having a proximal surface and a first connector portion and a second connector portion, the first connector portion coupleable to the valve stem (106; 206; 306; 406; 506; 606; 706; 1506; 1706); and a first indicator (108; 208; 308; 408-1; 508-1; 608-1; 708-1) including at least first and second raised surfaces (112-1, 112-2) on the proximal surface of the interface member (104; 404; 504; 604; 704; 1504; 1604), wherein the first raised surface includes a symbol and the second raised surface includes a geometric shape surrounding the symbol.
Wrapping machine for covering palletized loads comprising a pallet-supporting platform (4, 103, 107) structured for receiving in abutment the palletized load to be wrapped with the protective film, and a film-unwinding head capable of moving, with respect to the palletized load resting on the pallet-supporting platform (4, 103, 107), along a substantially circular orbit around said palletized load; the film-unwinding head comprising a load-bearing frame, a main reel-clamping member structured so as to be able to block a reel of protective film in axially rotatable manner on the load-bearing frame, and a film-unwinding assembly capable of progressively unwinding said first reel and of feeding the protective film obtained by unwinding the reel out of the film-unwinding head; the film-unwinding assembly comprising one or more traction rollers (24, 25) fixed in axially rotatable manner on the load-bearing frame side by side to one another, and a motor adapted to rotate at least one of said traction rollers (24, 25); the wrapping machine being characterised in that the film-unwinding head moreover comprises one or more supplementary reel-clamping members each of which is structured so as to be able to block a respective reel of protective film in axially rotatable manner on the load-bearing frame, and in that the film-unwinding assembly comprises, for each traction roller (24, 25), one or more first auxiliary idler pulleys located close to one of the two ends of the traction roller (24, 25), substantially coaxial to the traction roller (24, 25), and are capable of rotating freely about the rotation axis (24a, 25a) of the traction roller (24, 25) independently from one another and from the same traction roller (24, 25).
An optical film comprising: a polarizer; and a protection film disposed on the polarizer and comprising a polymer having a glass transition temperature of greater than 100°C, wherein the polymer is a terpolymer consisting of: a first structural unit derived from styrene or a styrene derivative; a second structural unit derived from maleic anhydride, acrylonitrile, a derivative thereof or a combination thereof; and a third structural unit derived from (meth)acrylate or a derivative thereof, wherein refractive indices of the protection film satisfy the following inequations n z1 > n x1 = n y1, wherein n x1 denotes a refractive index at a slow axis of the protection film, n y1 denotes a refractive index at a fast axis of the protection film, and n z1 denotes a refractive index in a direction perpendicular to the slow axis and the fast axis of the protection film; wherein retardations of the protection film satisfy the following inequations: -60 nm ≤ R o1 (550 nm) ≤ 60 nm; and -200 nm ≤ R th1 (550 nm) < -10 nm. a polarizer; and a protection film disposed on the polarizer and comprising a polymer having a glass transition temperature of greater than 100°C, wherein the polymer is a terpolymer consisting of: a first structural unit derived from styrene or a styrene derivative; a second structural unit derived from maleic anhydride, acrylonitrile, a derivative thereof or a combination thereof; and a third structural unit derived from (meth)acrylate or a derivative thereof, wherein refractive indices of the protection film satisfy the following inequations n z1 > n x1 = n y1, wherein n x1 denotes a refractive index at a slow axis of the protection film, n y1 denotes a refractive index at a fast axis of the protection film, and n z1 denotes a refractive index in a direction perpendicular to the slow axis and the fast axis of the protection film; wherein retardations of the protection film satisfy the following inequations: -60 nm ≤ R o1 (550 nm) ≤ 60 nm; and -200 nm ≤ R th1 (550 nm) < -10 nm. a first structural unit derived from styrene or a styrene derivative; a second structural unit derived from maleic anhydride, acrylonitrile, a derivative thereof or a combination thereof; and a third structural unit derived from (meth)acrylate or a derivative thereof, wherein refractive indices of the protection film satisfy the following inequations n z1 > n x1 = n y1, wherein n x1 denotes a refractive index at a slow axis of the protection film, n y1 denotes a refractive index at a fast axis of the protection film, and n z1 denotes a refractive index in a direction perpendicular to the slow axis and the fast axis of the protection film; wherein retardations of the protection film satisfy the following inequations: -60 nm ≤ R o1 (550 nm) ≤ 60 nm; and -200 nm ≤ R th1 (550 nm) < -10 nm.
A sealing film for a solar battery, in which 0.05-10 parts by weight of a hindered amine compound having a substructure represented by the following general formula: wherein R 5 represents C 5 -C 8 cycloalkyl or C 1 -C 18 straight- or branched-chain alkyl which may be substituted by hydroxy, is blended with 100 parts by weight of an ethylene-vinyl acetate copolymer.
An optoelectronic device (5; 55; 57; 60) comprising: a doped semiconductor substrate of a first conductivity type, the substrate comprising first and second opposite surfaces (12, 14); a first assembly (D 1) of first light-emitting diodes (DEL 1) supported by a first portion (54 1) of the substrate and comprising first wire-shaped, conical, or frustoconical semiconductor elements (20 1); a first electrode (30 1), at least partially transparent, covering each first light-emitting diode (DEL 1); a first conductive portion (42 1) insulated from the substrate and crossing the substrate from the second surface to at least the first surface and connected to the first electrode; a second assembly (D 2) of second light-emitting diodes (DEL 2) supported by a second portion (54 2) of the substrate and comprising second wire-shaped, conical, or frustoconical semiconductor elements (20 2); a second electrode (30 2), at least partially transparent, covering each second light-emitting diode (DEL 2); a second conductive portion (42 2) insulated from the substrate and crossing the substrate from the second surface to at least the first surface and connected to the second electrode; and a first conductive element (46 1, 51, 48 2), connecting on the second surface side the first conductive portion to the second substrate portion. a doped semiconductor substrate of a first conductivity type, the substrate comprising first and second opposite surfaces (12, 14); a first assembly (D 1) of first light-emitting diodes (DEL 1) supported by a first portion (54 1) of the substrate and comprising first wire-shaped, conical, or frustoconical semiconductor elements (20 1); a first electrode (30 1), at least partially transparent, covering each first light-emitting diode (DEL 1); a first conductive portion (42 1) insulated from the substrate and crossing the substrate from the second surface to at least the first surface and connected to the first electrode; a second assembly (D 2) of second light-emitting diodes (DEL 2) supported by a second portion (54 2) of the substrate and comprising second wire-shaped, conical, or frustoconical semiconductor elements (20 2); a second electrode (30 2), at least partially transparent, covering each second light-emitting diode (DEL 2); a second conductive portion (42 2) insulated from the substrate and crossing the substrate from the second surface to at least the first surface and connected to the second electrode; and a first conductive element (46 1, 51, 48 2), connecting on the second surface side the first conductive portion to the second substrate portion.