mhurhangee/ep-ind-claims huggingface dataset:
Use of a penetrant liquid for ink jet textile printing in combination with an ink composition comprising a dye to provide a printed textile material having a low difference in dye concentration between the front side and the back side of the printed material, wherein the penetrant liquid consists of: a compound containing a lactam structure; water; and optionally one or more further components selected from: an organic solvent; a surfactant; a urea; a saccharide; a pH adjusting agent a chelating agent; an antiseptic; an antirust agent; wherein the content of the compound containing a lactam structure is 20% by mass or more. a compound containing a lactam structure; water; and optionally one or more further components selected from: an organic solvent; a surfactant; a urea; a saccharide; a pH adjusting agent a chelating agent; an antiseptic; an antirust agent; an organic solvent; a surfactant; a urea; a saccharide; a pH adjusting agent a chelating agent; an antiseptic; an antirust agent; wherein the content of the compound containing a lactam structure is 20% by mass or more.
Camshaft having a support shaft which can be mounted such that it can be moved rotationally in a shaft axis, at least one cam pack being arranged axially displaceably on the support shaft, and the cam pack comprising at least two cams (13, 14, 26, 27, 28, 29, 32, 33, 34) and/or a multiple cam element and at least one adjusting member for axially adjusting the cam pack, the cams (13, 14, 26, 27, 28, 29, 32, 33, 34) and/or the multiple cam element and the at least one adjusting member being connected to one another in an axially adjacent arrangement, the connection between the cams (13, 14, 26, 27, 28, 29, 32, 33, 34) and/or the multiple cam element and the adjusting member being configured by means of an integrally formed body, characterized in that the assembly comprising the cams (13, 14, 26, 27, 28, 29, 32, 33, 34) and/or the multiple cam element and the adjusting member being arranged axially displaceably on the support shaft by means of a rolling body guide having rolling bodies, at least one guide groove for rolling body guidance being made in the cams (13, 14, 26, 27, 28, 29, 32, 33, 34) and/or in the multiple cam element.
An isolated, synthetic or recombinant peptide comprising SEQ ID NO: 1: Xaa 1 CRYLFGGCXaa 2 Xaa 3 TXaa 4 DCCKHLXaa 5 CRXaa 6 DXaa 7 Xaa 8 YCZ 1 [SEQ ID NO: 1] wherein: Xaa 1 is absent or is selected from acidic amino acid residues, including Asp and Glu; Xaa 2 is selected from small amino acid residues, including Ser and Thr, and basic amino acid residues, including Arg, His and Lys; Xaa 3 is selected from selected from small amino acid residues, including Ser and Thr; Xaa 4 is selected from small amino acid residues, including Ser, Thr, Ala and Gly; Xaa 5 is selected from small amino acid residues, including Ser, Thr, Ala and Gly; Xaa 6 is selected from small amino acid residues, including Ser and Thr; Xaa 7 is selected from aromatic amino acid residues, including Phe, Trp and Tyr, and hydrophobic amino acid residues, including Ile, Leu and Val; Xaa 8 is selected from aromatic amino acid residues, including Phe, Trp and Tyr, and basic amino acid residues, including Arg, His and Lys; and Z 1 is absent or is an amino acid sequence of SEQ ID NO: 2: AWDGTFXaa 9 [SEQ ID NO: 2] wherein: Xaa 9 is absent or is a small amino acid residue, including Ser and Thr; for use in treating or preventing epilepsy or Alzheimer's disease. Xaa 1 is absent or is selected from acidic amino acid residues, including Asp and Glu; Xaa 2 is selected from small amino acid residues, including Ser and Thr, and basic amino acid residues, including Arg, His and Lys; Xaa 3 is selected from selected from small amino acid residues, including Ser and Thr; Xaa 4 is selected from small amino acid residues, including Ser, Thr, Ala and Gly; Xaa 5 is selected from small amino acid residues, including Ser, Thr, Ala and Gly; Xaa 6 is selected from small amino acid residues, including Ser and Thr; Xaa 7 is selected from aromatic amino acid residues, including Phe, Trp and Tyr, and hydrophobic amino acid residues, including Ile, Leu and Val; Xaa 8 is selected from aromatic amino acid residues, including Phe, Trp and Tyr, and basic amino acid residues, including Arg, His and Lys; and Z 1 is absent or is an amino acid sequence of SEQ ID NO: 2: AWDGTFXaa 9 [SEQ ID NO: 2] wherein: Xaa 9 is absent or is a small amino acid residue, including Ser and Thr; for use in treating or preventing epilepsy or Alzheimer's disease. Xaa 9 is absent or is a small amino acid residue, including Ser and Thr; for use in treating or preventing epilepsy or Alzheimer's disease.
A vaporizer, comprising: a first air outlet channel; a vaporization cavity in communication with the first air outlet channel; and a liquid guide member; wherein the liquid guide member is arranged on the end of the first air outlet channel that is close to the vaporization cavity; wherein the vaporizer further comprises a vaporization base; wherein an air outlet that is in communication with the vaporization cavity and the first air outlet channel is provided on the vaporization base; and characterized in that the liquid guide member is arranged in the air outlet a first air outlet channel; a vaporization cavity in communication with the first air outlet channel; and a liquid guide member; wherein the liquid guide member is arranged on the end of the first air outlet channel that is close to the vaporization cavity; wherein the vaporizer further comprises a vaporization base; wherein an air outlet that is in communication with the vaporization cavity and the first air outlet channel is provided on the vaporization base; and characterized in that the liquid guide member is arranged in the air outlet
A method of compensating chromatic dispersion of a communications signal conveyed through an optical communications system, the method comprising: deriving a compensation function that mitigates a substantial portion of the chromatic dispersion imparted to the communications signal by the optical communications system; processing in the electrical domain a digital input signal to generate an analog predistorted signal comprising a pair of orthogonal signal components (56,58), the processing of the digital input signal including digitally filtering the digital input signal using the compensation function; and modulating an amplitude and a phase of an optical signal using the pair of orthogonal signal components of the analog predistorted signal to generate a corresponding optical predistorted signal for transmission through the optical communications system. deriving a compensation function that mitigates a substantial portion of the chromatic dispersion imparted to the communications signal by the optical communications system; processing in the electrical domain a digital input signal to generate an analog predistorted signal comprising a pair of orthogonal signal components (56,58), the processing of the digital input signal including digitally filtering the digital input signal using the compensation function; and modulating an amplitude and a phase of an optical signal using the pair of orthogonal signal components of the analog predistorted signal to generate a corresponding optical predistorted signal for transmission through the optical communications system.
A static eliminating and dust removing apparatus which comprises: a big container having an opened bottom portion and an opened uppermost portion for sucking dust upwardly and discharging dust, a small container of hollow truncated conical form provided within said big container, at least one discharge needle of an ion generator disposed above or within said small container to supply ions, wherein said small container is constructed to generate cyclone and tornado within said small container by being provided with first and second (17b, 17c) compressed air injection openings through which a compressed air is injected into said small container, said first injection openings being located adjacent to the uppermost portion of the inner wall of said small container, said second injection openings (17b, 17c) being located adjacent to an opened bottom portion of said small container and/or being located adjacent to the lower portion of the wall of said small container. a big container having an opened bottom portion and an opened uppermost portion for sucking dust upwardly and discharging dust, a small container of hollow truncated conical form provided within said big container, at least one discharge needle of an ion generator disposed above or within said small container to supply ions, wherein said small container is constructed to generate cyclone and tornado within said small container by being provided with first and second (17b, 17c) compressed air injection openings through which a compressed air is injected into said small container, said first injection openings being located adjacent to the uppermost portion of the inner wall of said small container, said second injection openings (17b, 17c) being located adjacent to an opened bottom portion of said small container and/or being located adjacent to the lower portion of the wall of said small container.
A lawn ground management system including an autonomous work vehicle configured to perform a mowing operation by a work unit while autonomously traveling in a work area, wherein the work unit includes a mowing blade, a charging station configured to perform power supply to the autonomous work vehicle, and a locking means (220, 75, 230, 300, 330, 430) for locking the autonomous work vehicle to the charging station for anti-theft performance in a state in which the autonomous work vehicle is located at a charging position to receive the power supply, and characterized in that the charging station includes a locking member configured to lock the blade.
A MTMR2-S polypeptide, or a nucleic acid sequence producing or encoding said MTMR2-S polypeptide, for use in the treatment of X-linked centronuclear myopathy (XLCNM).
Method for calibrating an optical measurement system, the measurement system comprising a light source, an optical element and a sensor, having the steps of: - illuminating a calibration object in a light plane by means of the light source; - capturing a plurality of images of the illuminated calibration object by means of the sensor in a sensor plane, the calibration object being moved freely within a measurement region by a user while the plurality of images are being captured; - detecting corner points in the images of the calibration object; - assigning the detected corner points to corresponding predetermined positions on the calibration object; and - determining a mapping from the sensor plane to the light plane using the detected corner points and the corresponding positions on the calibration object, wherein the determined mapping comprises a combination of a linear mapping and a non-linear mapping, which is determined in a single joint calculation process, wherein the mapping is determined using a plurality of images of just a single calibration object. - illuminating a calibration object in a light plane by means of the light source; - capturing a plurality of images of the illuminated calibration object by means of the sensor in a sensor plane, the calibration object being moved freely within a measurement region by a user while the plurality of images are being captured; - detecting corner points in the images of the calibration object; - assigning the detected corner points to corresponding predetermined positions on the calibration object; and - determining a mapping from the sensor plane to the light plane using the detected corner points and the corresponding positions on the calibration object,
Method for setting vehicle functions in a vehicle, wherein a plurality of individual functions are assigned to a plurality of main collection functions so that a plurality of individual functions may be set by selecting a main collection function, and wherein the main collection functions may be selected via a menu presented on a display device via an operating device, wherein the buttons (8-1 to 8-5) assigned to the main collection functions are displayed thereon, and the assignment of the settings of the individual functions, which are implemented upon activation of the respective main collection function, is effected via at least one submenu, characterized in that - the individual functions are grouped into individual function groups (A, B, C, D), wherein a specific individual function is assigned from an individual function group (A, B, C, D) to a main collection function in the setting of the individual functions for a main collection function, - at least one intermediate collection function is defined and is assigned to the settings of a subset of the specific individual functions, wherein a specific individual function is assigned to the intermediate collection function upon the setting of the individual functions from a individual function group (B, D) for an intermediate collection function, - a button (9-1 to 9-3) for selecting the intermediate collection function, is presented by the display device simultaneously with the buttons (8-1 to 8-5) of the menu for selecting the main collection functions, and - upon selection of the intermediate collection function, the assignment of the particular individual functions of the currently selected main collection function is changed, so that the setting of the subset of specific individual functions of the intermediate collection function is undertaken for the selected main collection function. - the individual functions are grouped into individual function groups (A, B, C, D), wherein a specific individual function is assigned from an individual function group (A, B, C, D) to a main collection function in the setting of the individual functions for a main collection function, - at least one intermediate collection function is defined and is assigned to the settings of a subset of the specific individual functions, wherein a specific individual function is assigned to the intermediate collection function upon the setting of the individual functions from a individual function group (B, D) for an intermediate collection function, - a button (9-1 to 9-3) for selecting the intermediate collection function, is presented by the display device simultaneously with the buttons (8-1 to 8-5) of the menu for selecting the main collection functions, and - upon selection of the intermediate collection function, the assignment of the particular individual functions of the currently selected main collection function is changed, so that the setting of the subset of specific individual functions of the intermediate collection function is undertaken for the selected main collection function.
Adjustable bloom mixer for a turbofan engine for setting a mixing ratio, adapted to the respective flight condition, between the cold airflow from the bypass duct and the hot airflow from the core flow duct, characterized in that the bloom mixer includes a thin-walled, corrugated part, an air-guiding element (13, 22) and an air control device (14, 16, 19, 23), that the air-guiding element (13, 22) is arranged upstream of the thin-walled, corrugated part of the bloom mixer for branching off a cold partial airflow from the bypass duct and/ or a hot partial airflow from the core flow duct of the engine, and that the air control device (14, 16, 19, 23) is assigned to the air-guiding element (13, 22) for leading the branched-off cold airflow or hot airflow along the inner surface and/ or the outer surface of the bloom mixer in order to deflect its corrugated part radially inwards or outwards because of the temperature difference between the inner and the outer surface effected by the hot and/ or cold partial airflow.
A double stranded ribonucleic acid (RNAi) agent for inhibiting expression of programmed cell death 1 ligand 1 (PD-L1), wherein said RNAi agent comprises a sense strand and an antisense strand, wherein said sense strand comprises at least 15 contiguous nucleotides differing by no more than 3 nucleotides from any one of nucleotides 3221-3243 of the nucleotide sequence of SEQ ID NO:1 and said antisense strand comprises at least 15 contiguous nucleotides differing by no more than 3 nucleotides from the complementary portion of the nucleotide sequence of SEQ ID NO:2, wherein all of the nucleotides of said sense strand and all of the nucleotides of said antisense strand comprise nucleotide modifications, and wherein said sense strand is conjugated to an N-acetylgalactosamine (GalNAc) derivative attached at the 3'-terminus. wherein all of the nucleotides of said sense strand and all of the nucleotides of said antisense strand comprise nucleotide modifications, and wherein said sense strand is conjugated to an N-acetylgalactosamine (GalNAc) derivative attached at the 3'-terminus.
An immunoglobulin that binds FcyRIIb and co-engages CD 19 on the surface of a B cell for use in the treatment of an IgG4-related disease in a subject, wherein said immunoglobulin comprises a heavy chain and a light chain, said heavy chain comprising SEQ ID NO: 9, and said light chain comprising SEQ ID NO: 7, wherein said immunoglobulin is used at a therapeutically effective dose.
A method of making a polyisobutylene polymer in a recirculating loop reactor with one or more reaction tubes in contact with a heat transfer medium comprising: (a) feeding isobutylene, catalyst and optionally other feed components to a residual reactor stream at a feed rate to form a reaction mixture; (b) recirculating the reaction mixture in the one or more reaction tubes of the loop reactor at a recirculation rate greater than the feed rate utilizing a recirculating pump operating at a pressure differential, delta P, corresponding to a recirculating flow; (c) polymerizing the reaction mixture in the one or more tubes of the loop reactor to convert isobutylene to polyisobutylene polymer at a conversion rate expressed in %, w/w, while cooling the one or more tubes of the loop reactor with the heat transfer medium; (d) controlling the recirculation rate, delta P and polymerization reaction of steps (b) and (c) to provide a linear velocity of the reaction mixture of at least 3 m/s (11 ft/sec) in the one or more tubes of the loop reactor with the proviso that if the conversion of isobutylene is less than 55%, the recirculation rate, the delta P and the polymerization reaction of steps (b) and (c) are controlled to provide a linear velocity of the reaction mixture in the one or more reaction tubes of at least 4 m/s (13.5 ft/sec); and (e) withdrawing polyisobutylene polymer from the loop reactor. (a) feeding isobutylene, catalyst and optionally other feed components to a residual reactor stream at a feed rate to form a reaction mixture; (b) recirculating the reaction mixture in the one or more reaction tubes of the loop reactor at a recirculation rate greater than the feed rate utilizing a recirculating pump operating at a pressure differential, delta P, corresponding to a recirculating flow; (c) polymerizing the reaction mixture in the one or more tubes of the loop reactor to convert isobutylene to polyisobutylene polymer at a conversion rate expressed in %, w/w, while cooling the one or more tubes of the loop reactor with the heat transfer medium; (d) controlling the recirculation rate, delta P and polymerization reaction of steps (b) and (c) to provide a linear velocity of the reaction mixture of at least 3 m/s (11 ft/sec) in the one or more tubes of the loop reactor with the proviso that if the conversion of isobutylene is less than 55%, the recirculation rate, the delta P and the polymerization reaction of steps (b) and (c) are controlled to provide a linear velocity of the reaction mixture in the one or more reaction tubes of at least 4 m/s (13.5 ft/sec); and (e) withdrawing polyisobutylene polymer from the loop reactor.
A method of forming a memory cell, comprising: forming, in a first direction, a select device stack (204, 207, 208) including a select device (207, 307) formed between a first electrode (204, 304) and a second electrode (208, 308); forming, in a second direction, a plurality of sacrificial material lines over the select device stack to form a via; forming a programmable material stack (208, 214, 216) within the via; and removing the plurality of sacrificial material lines and etching through a portion of the select device stack to isolate the select device (207, 307). forming, in a first direction, a select device stack (204, 207, 208) including a select device (207, 307) formed between a first electrode (204, 304) and a second electrode (208, 308); forming, in a second direction, a plurality of sacrificial material lines over the select device stack to form a via; forming a programmable material stack (208, 214, 216) within the via; and removing the plurality of sacrificial material lines and etching through a portion of the select device stack to isolate the select device (207, 307).
A method of forming an article on a tool, the tool having one longitudinal direction L and one transversal direction T, the tool (31, 51) further having at least one depressed part (34, 52, 53) and at least one protruding part (35, 36, 54), which protruding part is protruding in relation to the depressed part (34, 52, 53) of the tool (31, 51), wherein the method comprises the steps of: - arranging a stack of plies comprising fibres, wherein the stack when positioned on the tool (21, 41) the ply arranged closest (24, 44) to the tool (21, 41) has the fibres substantially orthogonal to the longitudinal direction of the tool (21, 41), the next four plies have the fibres substantially diagonal (4, 5) to the longitudinal direction of the tool (21, 41), the next ply has the fibres substantially orthogonal to the longitudinal direction of the tool (21, 41), the next four plies have the fibres in substantially the same direction as the longitudinal direction of the tool (21, 41), the next ply has the fibres substantially orthogonal to the longitudinal direction of the tool (21, 41), the four next plies have the fibres substantially diagonal (4, 5) to the longitudinal direction of the tool (21, 41), the next ply has the fibres substantially orthogonal to the longitudinal direction of the tool (21, 41), and - -conforming the stack to the tool with a forming medium; and - -removing the article from the tool (61, 71). - arranging a stack of plies comprising fibres, wherein the stack when positioned on the tool (21, 41) the ply arranged closest (24, 44) to the tool (21, 41) has the fibres substantially orthogonal to the longitudinal direction of the tool (21, 41), the next four plies have the fibres substantially diagonal (4, 5) to the longitudinal direction of the tool (21, 41), the next ply has the fibres substantially orthogonal to the longitudinal direction of the tool (21, 41), the next four plies have the fibres in substantially the same direction as the longitudinal direction of the tool (21, 41), the next ply has the fibres substantially orthogonal to the longitudinal direction of the tool (21, 41), the four next plies have the fibres substantially diagonal (4, 5) to the longitudinal direction of the tool (21, 41), the next ply has the fibres substantially orthogonal to the longitudinal direction of the tool (21, 41), and - -conforming the stack to the tool with a forming medium; and - -removing the article from the tool (61, 71).