mhurhangee/ep-ind-claims huggingface dataset:
Skin-mountable medical device comprising: a mounting plate having a bottom side attachable to the skin of a user preferably via an adhesive pad, a medical module, in particular an analyte sensing device or a drug administration pump, a snap connector adapted to releasably attach the medical module on the upper side of the mounting plate opposite to the bottom side, wherein the snap connector has a latch that is connected to the mounting plate and engages with the medical module in a locking position, wherein the snap connector has a release flap that can be actuated by the user to detach the medical module, wherein the latch can be tilted outward by actuation of the release flap so as to disengage from the medical module in a release position, and wherein the release flap projects outwardly from the mounting plate, characterized in that the release flap has an outer portion which at its bottom side maintains a clearance to avoid an interfering contact in use. a mounting plate having a bottom side attachable to the skin of a user preferably via an adhesive pad, a medical module, in particular an analyte sensing device or a drug administration pump, a snap connector adapted to releasably attach the medical module on the upper side of the mounting plate opposite to the bottom side, wherein the snap connector has a latch that is connected to the mounting plate and engages with the medical module in a locking position, wherein the snap connector has a release flap that can be actuated by the user to detach the medical module, wherein the latch can be tilted outward by actuation of the release flap so as to disengage from the medical module in a release position, and wherein the release flap projects outwardly from the mounting plate, characterized in that the release flap has an outer portion which at its bottom side maintains a clearance to avoid an interfering contact in use.
A system for delivering breathing gas, the system comprising: a base unit comprising: a blower; a heating element for heating liquid, the heating element having a heating surface; and a pressure sensor; a vapor transfer unit external to the base unit and comprising: a gas passage, a liquid passage, a gas outlet, and a membrane separating the gas passage and the liquid passage, wherein the membrane permits transfer of vapor into the gas passage from liquid in the liquid passage; a nasal cannula coupled to the gas outlet; and a liquid container configured to reversibly mate with the base unit, the liquid container having a surface formed of a flexible film, wherein the flexible film is configured to mate with the heating surface when the liquid container mates with the base unit, wherein the pressure sensor is configured to measure pressure of the liquid of the liquid container against the flexible film when the liquid container is coupled to the base unit. a base unit comprising: a blower; a heating element for heating liquid, the heating element having a heating surface; and a pressure sensor; a blower; a heating element for heating liquid, the heating element having a heating surface; and a pressure sensor; a vapor transfer unit external to the base unit and comprising: a gas passage, a liquid passage, a gas outlet, and a membrane separating the gas passage and the liquid passage, wherein the membrane permits transfer of vapor into the gas passage from liquid in the liquid passage; a gas passage, a liquid passage, a gas outlet, and a membrane separating the gas passage and the liquid passage, wherein the membrane permits transfer of vapor into the gas passage from liquid in the liquid passage; a nasal cannula coupled to the gas outlet; and a liquid container configured to reversibly mate with the base unit, the liquid container having a surface formed of a flexible film, wherein the flexible film is configured to mate with the heating surface when the liquid container mates with the base unit, wherein the pressure sensor is configured to measure pressure of the liquid of the liquid container against the flexible film when the liquid container is coupled to the base unit.
A process for recovering or generating hydrochloric acid from a solution comprising one or more metal chlorides, said process comprising: 1. supplying a feed solution comprising at least one metal chloride to an electrolytic cell comprising an anode chamber housing an anode and a cathode chamber housing a cathode, the anode chamber and cathode chamber separated by an anion exchange membrane; wherein the feed solution is supplied to the cathode chamber; 2. applying an electric current to the electrolytic cell sufficient to generate gaseous hydrogen and hydroxide ions at the cathode, wherein the metal chlorides dissociate to form metal ions and chloride ions, the metal ions reacting with the hydroxide ions to form metal hydroxides and the chloride ions passing through the anion exchange membrane; wherein the chloride ions undergo oxidation at the anode in the anode chamber to form gaseous chlorine; and wherein the gaseous chlorine and gaseous hydrogen are mixed as they are removed from the electrolytic cell and are collected by application of negative pressure; 3. reacting the gaseous chlorine and gaseous hydrogen in the presence of an activated carbon catalyst to form gaseous hydrogen chloride; and 4. condensing the gaseous hydrogen chloride in one or more condensing chambers wherein the one or more condensing chambers comprise water. 1. supplying a feed solution comprising at least one metal chloride to an electrolytic cell comprising an anode chamber housing an anode and a cathode chamber housing a cathode, the anode chamber and cathode chamber separated by an anion exchange membrane; wherein the feed solution is supplied to the cathode chamber; 2. applying an electric current to the electrolytic cell sufficient to generate gaseous hydrogen and hydroxide ions at the cathode, wherein the metal chlorides dissociate to form metal ions and chloride ions, the metal ions reacting with the hydroxide ions to form metal hydroxides and the chloride ions passing through the anion exchange membrane; wherein the chloride ions undergo oxidation at the anode in the anode chamber to form gaseous chlorine; and wherein the gaseous chlorine and gaseous hydrogen are mixed as they are removed from the electrolytic cell and are collected by application of negative pressure; 3. reacting the gaseous chlorine and gaseous hydrogen in the presence of an activated carbon catalyst to form gaseous hydrogen chloride; and 4. condensing the gaseous hydrogen chloride in one or more condensing chambers wherein the one or more condensing chambers comprise water.
A method for allocating a scrambling code performed by a network radio controller NRC in a telecommunications network, comprising: selecting a target cell from a group of cells in the telecommunication network; determining one or more reuse code exclusion zones associated with allocating scrambling codes to the selected target cell by: determining first neighbor cells on a neighbor list of the target cell; and determining second neighbor cells that are on neighbor lists of the first neighbor cells, wherein the at least one reuse code exclusion zone includes the first neighbor cells and the second neighbor cells; and allocating a scrambling code to the selected target cell based on the determined one or more reuse code exclusion zones. selecting a target cell from a group of cells in the telecommunication network; determining one or more reuse code exclusion zones associated with allocating scrambling codes to the selected target cell by: determining first neighbor cells on a neighbor list of the target cell; and determining second neighbor cells that are on neighbor lists of the first neighbor cells, wherein the at least one reuse code exclusion zone includes the first neighbor cells and the second neighbor cells; and determining first neighbor cells on a neighbor list of the target cell; and determining second neighbor cells that are on neighbor lists of the first neighbor cells, wherein the at least one reuse code exclusion zone includes the first neighbor cells and the second neighbor cells; and allocating a scrambling code to the selected target cell based on the determined one or more reuse code exclusion zones.
A method for the production of a hydrochlorination catalyst, comprising the steps of: i) preparing an impregnation solution by combining a source of gold and a ligand in a solvent, wherein the solvent comprises an organic solvent which comprises or consists of acetone; ii) impregnating a support with the impregnation solution from step (i); and iii) drying the product of step (ii) to obtain the catalyst; wherein the ligand is of Formula wherein X is O or S; n is 1 or 2; R is H or a C1 to C10 hydrocarbon group optionally including one or more heteroatoms selected from halogen (F, Cl, Br, I), oxygen or nitrogen. i) preparing an impregnation solution by combining a source of gold and a ligand in a solvent, wherein the solvent comprises an organic solvent which comprises or consists of acetone; ii) impregnating a support with the impregnation solution from step (i); and iii) drying the product of step (ii) to obtain the catalyst; wherein the ligand is of Formula wherein X is O or S; n is 1 or 2; R is H or a C1 to C10 hydrocarbon group optionally including one or more heteroatoms selected from halogen (F, Cl, Br, I), oxygen or nitrogen.
An isolated antibody, or antigen binding fragment thereof, wherein said antibody or antigen binding fragment thereof binds human IL-13 such that IL-13 with said antibody, or antigen binding fragment thereof, bound to the epitope defined by the topographic regions Ser26-Thr27-Ala28-Leu29-Arg30-Glu31-Leu32-Ile33-Glu34-Glu35-Leu36-Val37-Asn38 and Lys123-Lys124-Leu125-Phe126-Arg127-Glu-128-Gly129-Arg130 of SEQ ID NO:1 is inhibited from binding to both the IL-13α1 receptor and the IL-13α2 receptor.
An adjustable cutting module for cutting the turf of the ground, comprising cutting means each comprising a cutting blade, wherein the cutting blade is lying on a respective cutting plane positioned at the ground; comprising means for moving the cutting blade which are operatively associated with the cutting means, wherein the movement means comprise an actuator configured to determine the adjustment of a distance (d) of the cutting plane of the cutting blade relative to the ground, and a further actuator configured to actuate the cutting blade simultaneously or separately relative to an operation of the actuator; wherein it comprises a control unit configured to measure a resistant torque acting on the cutting blade when it is in use, the control unit being configured to actuate the movement means to move the cutting blade away from the ground in an operating condition of the cutting module such that the resistant torque is greater than a predetermined torque value acting on the cutting blade and to actuate the movement means to move the cutting blade towards the ground in an operating condition of the cutting module such that the resistant torque is less than a predetermined torque value acting on the cutting blade and characterised in that the actuator is an electric motor having its own axis of rotation which is skew relative to the central axis of rotation.
Robotic vacuum cleaner, comprising a dust-receiving chamber which is accessible via a suction opening, and comprising a main body and a container which provides the dust-receiving chamber and is removably inserted into a receptacle in the main body, a suction mouth being provided which is connected upstream of the suction opening in the suction direction in a fluidically exchangeable manner, characterised in that that the suction mouth is arranged on the container in an exchangeable manner.
A power tool comprising: a handle housing that defines a handle; a motor received in said handle housing; an output member; and a cassette received in said handle housing, said cassette including a transmission housing, a multi-stage transmission received in said transmission housing, and a thrust washer, said transmission housing having a first end with first and second channels formed therein, said thrust washer having a body and first and second protrusions that extend radially from said body, each of said first and second protrusions (338, 342) being received in an associated one of said first and second channels; characterised in that the first and second channels are circumferentially extending channels. a handle housing that defines a handle; a motor received in said handle housing; an output member; and a cassette received in said handle housing, said cassette including a transmission housing, a multi-stage transmission received in said transmission housing, and a thrust washer, said transmission housing having a first end with first and second channels formed therein, said thrust washer having a body and first and second protrusions that extend radially from said body, each of said first and second protrusions (338, 342) being received in an associated one of said first and second channels; characterised in that the first and second channels are circumferentially extending channels.
A micromechanical reflector system (300, 500, 600, 700) comprising one or more supports (316, 516, 616, 716) and a reflector body, wherein the reflector body (301, 501, 601, 701) is suspended from the one or more supports by four suspenders (310, 510, 610, 710), whereby each suspender comprises an outer section (313, 513, 613, 713), a middle section (312, 512, 612, 712) and an inner section (311, 511, 611, 711), wherein: the outer section is fixed at a first end to one of the one or more supports and is connected at the second end to the middle section, and wherein the outer section extends from the support in a first direction around a portion of the perimeter of the reflector body to the middle section; the inner section is disposed between the outer section and the reflector body and is connected at a first end to the middle section, wherein the inner section extends from the middle section in a second direction, opposite to the first direction, around at least part of the portion of the perimeter of the reflector body; characterised in that the reflector body is connected to the suspender at the middle section and a second end of the inner section distal to the middle section; and a first piezoelectric actuator is located on the outer section and a second piezoelectric actuator is located on the inner section. the outer section is fixed at a first end to one of the one or more supports and is connected at the second end to the middle section, and wherein the outer section extends from the support in a first direction around a portion of the perimeter of the reflector body to the middle section; the inner section is disposed between the outer section and the reflector body and is connected at a first end to the middle section, wherein the inner section extends from the middle section in a second direction, opposite to the first direction, around at least part of the portion of the perimeter of the reflector body; characterised in that the reflector body is connected to the suspender at the middle section and a second end of the inner section distal to the middle section; and a first piezoelectric actuator is located on the outer section and a second piezoelectric actuator is located on the inner section.
A method in a network node, the method comprising: determining a first uplink/downlink scheduling pattern for a first plurality of consecutive subframes comprising a single set of consecutive downlink subframes and either zero uplink subframes or a single set of consecutive uplink subframes, wherein the first uplink/downlink scheduling pattern comprises: a first value representing the number of subframes in the single set of consecutive downlink subframes; and a second value representing either zero uplink subframes or the number of subframes in the single set of consecutive uplink subframes; transmitting the first uplink/downlink scheduling pattern to a wireless device; transmitting at least one sub frame to the wireless device according to the first uplink/downlink scheduling pattern; determining a second uplink/downlink scheduling pattern for a second plurality of consecutive subframes, wherein the first plurality of consecutive subframes and the second plurality of consecutive subframes share at least one subframe; and transmitting the second uplink/downlink scheduling pattern to the wireless device. determining a first uplink/downlink scheduling pattern for a first plurality of consecutive subframes comprising a single set of consecutive downlink subframes and either zero uplink subframes or a single set of consecutive uplink subframes, wherein the first uplink/downlink scheduling pattern comprises: a first value representing the number of subframes in the single set of consecutive downlink subframes; and a second value representing either zero uplink subframes or the number of subframes in the single set of consecutive uplink subframes; transmitting the first uplink/downlink scheduling pattern to a wireless device; transmitting at least one sub frame to the wireless device according to the first uplink/downlink scheduling pattern; determining a second uplink/downlink scheduling pattern for a second plurality of consecutive subframes, wherein the first plurality of consecutive subframes and the second plurality of consecutive subframes share at least one subframe; and transmitting the second uplink/downlink scheduling pattern to the wireless device.
A light module of a lighting device of an automobile, wherein a light radiating device is arranged on an optical axis between a spherical concave mirror and a center of curvature of the spherical concave mirror, wherein the light radiating device is directed onto the spherical concave mirror for radiating light, wherein a light source (44; 47) is allocated to the light radiating device, wherein a correction device for reducing a spherical aberration of the spherical concave mirror is arranged in the beam path after the spherical concave mirror, characterized in that the light radiating device is arranged substantially centrally between the spherical concave mirror and the center of curvature of the spherical concave mirror, that an aperture stop is arranged at the center of curvature of the spherical concave mirror and that the light source (44; 47) comprises multiple single pixels arranged matrix-like which can be driven in groups, preferably individually for generating a variable light distribution, and that the light source comprises a semiconductor light source array, or that the light source comprises a laser light source, wherein laser light of the laser light source can be guided by means of beam guiding means, which are present between the laser light source and the photoluminescence element in the beam path, across the photoluminescence element for generating a variable light distribution.
A method for producing a primary alcohol-terminated polyisobutylene compound comprising the steps of: providing an alkenyl-terminated polyisobutylene having one alkenyl terminus formed from straight C 3 to C 12 alkenyl groups having a double bond present at the end of the alkenyl group; subjecting the alkenyl-terminated polyisobutylene to a bromination reaction to form a primary bromine-terminated polyisobutylene compound having one primary bromine terminus; converting the primary bromine-terminated polyisobutylene compound to a primary alcohol-terminated polyisobutylene via a base reaction, the primary alcohol-terminated polyisobutylene having one primary alcohol terminus; and recovering the primary alcohol-terminated polyisobutylene. providing an alkenyl-terminated polyisobutylene having one alkenyl terminus formed from straight C 3 to C 12 alkenyl groups having a double bond present at the end of the alkenyl group; subjecting the alkenyl-terminated polyisobutylene to a bromination reaction to form a primary bromine-terminated polyisobutylene compound having one primary bromine terminus; converting the primary bromine-terminated polyisobutylene compound to a primary alcohol-terminated polyisobutylene via a base reaction, the primary alcohol-terminated polyisobutylene having one primary alcohol terminus; and recovering the primary alcohol-terminated polyisobutylene.
Shading arrangement, in particular a vertical awning, having a box with side covers, and a winding shaft arranged in said box, a material-web-shaped covering, which has one end fastened on the winding shaft and the other end fastened on an opening-out bar, the latter having lateral end regions, and which is provided with keders extending along the two side edges, profile-shaped guide rails, which define a longitudinal direction and each delimit a guide chamber, which guide chambers are open through a front through-passage, which is delimited by front flanks of the guide rails and has the covering passing through it, a profile-shaped guide insert, which - in the installed state - is arranged in each guide chamber and has a keder groove for guiding the respective keder, and insertion-guide elements for inserting the keders with guidance into the keder grooves, characterized in that the insertion-guide elements, which have an insertion keder groove, are arranged for moving back and forth between an operating position, for inserting the keders with guidance into the keder grooves, and an installation position, for the installation and/or removal of the guide inserts, and can be fixed at least in the operating position, wherein the insertion-guide elements, in the operating position, at least more or less butt against the end side of the associated guide insert inserted into the guide chamber, and the installation position is located at a distance from the operating position in the direction into the box.
A method for producing soybean oil having increased oleic acid content and reduced linoleic acid content, comprising: (a) providing a soybean plant or plant part comprising: (i) a deletion in one or more FAD2-1A alleles, wherein said deletion in the one or more FAD2-1A alleles was induced by TAL effector endonucleases binding to SEQ ID NOs: 32 and 33, and (ii) a deletion in one or more FAD2-1B alleles, wherein said deletion in the one or more FAD2-1B alleles was induced by TAL effector endonucleases binding to SEQ ID NOs: 32 and 33; and (b) producing oil from seed of said plant or plant part, wherein said oil has increased oleic acid content and reduced linoleic acid content as compared to oil produced by a soybean plant or plant part that does not comprise said deletions. (a) providing a soybean plant or plant part comprising: (i) a deletion in one or more FAD2-1A alleles, wherein said deletion in the one or more FAD2-1A alleles was induced by TAL effector endonucleases binding to SEQ ID NOs: 32 and 33, and (ii) a deletion in one or more FAD2-1B alleles, wherein said deletion in the one or more FAD2-1B alleles was induced by TAL effector endonucleases binding to SEQ ID NOs: 32 and 33; and (i) a deletion in one or more FAD2-1A alleles, wherein said deletion in the one or more FAD2-1A alleles was induced by TAL effector endonucleases binding to SEQ ID NOs: 32 and 33, and (ii) a deletion in one or more FAD2-1B alleles, wherein said deletion in the one or more FAD2-1B alleles was induced by TAL effector endonucleases binding to SEQ ID NOs: 32 and 33; and (b) producing oil from seed of said plant or plant part, wherein said oil has increased oleic acid content and reduced linoleic acid content as compared to oil produced by a soybean plant or plant part that does not comprise said deletions.