mhurhangee/patent-ind-claim-en huggingface dataset:
A gas sensor assembly with a sealable chamber, comprising: a chamber having an air passage, wherein the chamber is enclosed around the air passage; a gas sensor located within the chamber; an air permeable membrane located within the chamber between the gas sensor and the air passage;the gas sensor assembly being characterized by a tube having a first open end coupled to the chamber at the air passage and having a second open end opposite the first end, wherein the second end of the tube allows for air flow into the tube, and when a level of water in the tube rises to a particular level, air with positive pressure in the chamber prevents the water from penetrating the membrane. a chamber having an air passage, wherein the chamber is enclosed around the air passage; a gas sensor located within the chamber; an air permeable membrane located within the chamber between the gas sensor and the air passage;the gas sensor assembly being characterized by a tube having a first open end coupled to the chamber at the air passage and having a second open end opposite the first end, wherein the second end of the tube allows for air flow into the tube, and when a level of water in the tube rises to a particular level, air with positive pressure in the chamber prevents the water from penetrating the membrane.
A magnetic filler composed of ferrite particles having an outer shell structure containing a Ti oxide, characterised in that the ferrite particles contain 47 to 70 wt% of Fe, 0.5 to 4 wt% of Mg, 3 to 20 wt% of Mn, 0.5 to 4.5 wt% of Ti, and 0 to 1.5 wt% of Sr.
A method, at a computation node of a database system, for managing storage of a primary database and a replica database , characterized by : storing data arranged in a sequence of rows in a first storage format at the primary database ; storing the data arranged in the sequence of rows in a second storage format at the replica database , wherein the sequence of rows is determined according to one of the first storage format and the second storage format; and wherein storing the data in the primary database includes storing each group of rows in a plurality of groups of rows in the data into a corresponding heap file of a fixed length, and wherein storing the data in the replica database includes storing a fixed number of columns in each group of rows into a corresponding compression unit (CU) of a fixed number of entries; wherein each heap file includes a sequence number indicating a first row in the corresponding group of rows, and each heap file storing a group of rows includes or is associated with a CU descriptor pointing to the corresponding CU storing the group of rows. storing data arranged in a sequence of rows in a first storage format at the primary database ; storing the data arranged in the sequence of rows in a second storage format at the replica database , wherein the sequence of rows is determined according to one of the first storage format and the second storage format; and wherein storing the data in the primary database includes storing each group of rows in a plurality of groups of rows in the data into a corresponding heap file of a fixed length, and wherein storing the data in the replica database includes storing a fixed number of columns in each group of rows into a corresponding compression unit (CU) of a fixed number of entries; wherein each heap file includes a sequence number indicating a first row in the corresponding group of rows, and each heap file storing a group of rows includes or is associated with a CU descriptor pointing to the corresponding CU storing the group of rows.
A delivery device comprising: a central elongate structure comprising an annular member at a distal end thereof, the annular member including a plurality of pockets extending radially therearound; a proximal sheath configured to slide over the annular member ; a distal sheath configured to cover a portion of the proximal sheath when the distal sheath and the proximal sheath are in a closed position; a plurality of tethers extending through the central elongate structure, each tether including a feature on a distal end thereof configured to fit within a pocket of the plurality of pockets to hold the tether in place; a handle connected to the elongate structure, the proximal sheath , and the plurality of tethers; and a control on the handle configured to move the proximal sheath proximally and distally over the annular member .
A method of decolorizing a non-food industrial product or a food product, said food product being chosen in the group consisting of dairy products, edible oils, edible fats, polysaccharides, beverages and combinations thereof, comprising contacting the product with an aqueous dispersion having a viscosity between 800-2,000 mPa.s using ASTM D2196-10 comprising a) 35% by weight or more of water-insoluble, solid organic peroxide having an average particle size of less than 10 μm, preferably of less than 5 μm and b) surfactant which is a polyglyceryl ester of one or more C6-C18 fatty acids selected from the group consisting of octanoic acid, decanoic acid, and mixtures thereof.
A method comprising: selecting one or more portions of a scene ; controlling an image sensor to capture, at a first time, at an array of sensor elements, at a relatively wide field of view, a wide-field-of-view image of the scene ; controlling the image sensor to capture, over a period of time after the first time, at one or more subsets of the array of sensor elements, at a relatively narrow field of view or narrow fields of view, one or more narrow-field-of-view images of the one or more selected portions of the scene , wherein the one or more subsets comprises fewer than all of the sensor elements of the array that were used to capture the wide-field-of-view image , and wherein the image sensor is controlled over the period of time not to capture, at a relatively wide field of view, a wide-field-of-view image of a scene; receiving the wide-field-of-view image ; receiving the one or more narrow-field-of-view images ; and forming by a processor a composite image of the scene with the relatively wide field of view using the wide-field-of-view image captured at the first time and at least one of the one or more narrow-field-of-view images captured over the period of time after the first time. selecting one or more portions of a scene ; controlling an image sensor to capture, at a first time, at an array of sensor elements, at a relatively wide field of view, a wide-field-of-view image of the scene ; controlling the image sensor to capture, over a period of time after the first time, at one or more subsets of the array of sensor elements, at a relatively narrow field of view or narrow fields of view, one or more narrow-field-of-view images of the one or more selected portions of the scene , wherein the one or more subsets comprises fewer than all of the sensor elements of the array that were used to capture the wide-field-of-view image , and wherein the image sensor is controlled over the period of time not to capture, at a relatively wide field of view, a wide-field-of-view image of a scene; receiving the wide-field-of-view image ; receiving the one or more narrow-field-of-view images ; and forming by a processor a composite image of the scene with the relatively wide field of view using the wide-field-of-view image captured at the first time and at least one of the one or more narrow-field-of-view images captured over the period of time after the first time.
A semiconductor sintered body comprising a polycrystalline body, wherein the polycrystalline body includes silicon, or a silicon alloy, an average particle size of crystal grains forming the polycrystalline body is 1 μm or less, and nanoparticles including one or more of a carbide of silicon, a nitride of silicon, and an oxide of silicon exist at a grain boundary of the crystal grains, wherein the semiconductor sintered body comprises one or more dopants selected from phosphorus, arsenic, antimony, and bismuth,or one or more dopants selected from boron, aluminum, gallium, indium, and thallium, and wherein the semiconductor sintered body has an electrical conductivity of 100,000 S/m or higher. wherein the polycrystalline body includes silicon, or a silicon alloy, an average particle size of crystal grains forming the polycrystalline body is 1 μm or less, and nanoparticles including one or more of a carbide of silicon, a nitride of silicon, and an oxide of silicon exist at a grain boundary of the crystal grains, wherein the semiconductor sintered body comprises one or more dopants selected from phosphorus, arsenic, antimony, and bismuth,or one or more dopants selected from boron, aluminum, gallium, indium, and thallium, and wherein the semiconductor sintered body has an electrical conductivity of 100,000 S/m or higher.
A dosing mechanism for an injection device, comprising: a) a dosage setting element , and a first element which is coupled to the dosage setting element and can be rotated in a first rotational direction about a main rotational axis (H) relative to another, second element by means of a coupling while a dosage is set and which is rotationally fixed relative to the second element while a dosage is delivered, wherein the first element and the second element are coupled via a sleeve-shaped stop element which forms a complementary stop abutment ; and b) a stop abutment (110; 210), wherein the complementary stop abutment performs a movement towards a stop position while the first element rotates in the first rotational direction, wherein the complementary stop abutment abuts against the stop abutment (110; 210) in the stop position and prevents the first element from rotating in the first rotational direction relative to the second element , characterised in that c) the sleeve-shaped stop element can be rotated about a secondary rotational axis (N) which is arranged such that it is offset in parallel or is angularly offset with respect to the main rotational axis (H) and which surrounds the first element or the second element . a) a dosage setting element , and a first element which is coupled to the dosage setting element and can be rotated in a first rotational direction about a main rotational axis (H) relative to another, second element by means of a coupling while a dosage is set and which is rotationally fixed relative to the second element while a dosage is delivered, wherein the first element and the second element are coupled via a sleeve-shaped stop element which forms a complementary stop abutment ; and b) a stop abutment (110; 210), wherein the complementary stop abutment performs a movement towards a stop position while the first element rotates in the first rotational direction, wherein the complementary stop abutment abuts against the stop abutment (110; 210) in the stop position and prevents the first element from rotating in the first rotational direction relative to the second element , characterised in that c) the sleeve-shaped stop element can be rotated about a secondary rotational axis (N) which is arranged such that it is offset in parallel or is angularly offset with respect to the main rotational axis (H) and which surrounds the first element or the second element .
A process for producing a highly purified glucosyl stevia composition, comprising the steps of: (a) adding starch into water to form a starch suspension; (b) adding a mixture of α -amylase and CGTase into the starch suspension and incubating for 0.5 to 2 hours at 75-80°C, resulting in a liquefied starch suspension; (c) inactivating the α -amylase by low pH heat treatment; (d) cooling the liquefied starch suspension and adjusting the pH to 5.5 to 7.0; (e) adding steviol glycosides into the liquefied starch suspension, resulting in a reaction mixture; (f) adding a second batch of CGTase into the reaction mixture and incubating for 12 to 48 hours at 55-75°C; (g) inactivating the enzymes in the reaction mixture by heat treatment; (h) decolorizing the reaction mixture; (i) removing non-diterpene compounds by contacting the decolorized reaction mixture with macroporous adsorbent resin and subsequently eluting adsorbed diterpene glycosides with aqueous ethanol to result in a glycoside-containing aqueous ethanol eluate; (j) desalting the glycoside-containing aqueous ethanol eluate with ion-exchange resins; (k) removing ethanol from the aqueous ethanol eluate, resulting in an aqueous eluate; (l) concentrating and drying the aqueous eluate to obtain the dried glucosyl stevia composition, (m) suspending the dried glucosyl stevia composition in aqueous alcohol to form a suspension, removing unmodified steviol glycosides from the suspension, and separating and drying the highly purified glucosyl stevia composition; wherein the highly purified glucosyl stevia composition comprises long-chain steviol glycoside derivatives having up to nine α-1,4-glucosyl residues, and less than 15% unmodified steviol glycosides. (a) adding starch into water to form a starch suspension; (b) adding a mixture of α -amylase and CGTase into the starch suspension and incubating for 0.5 to 2 hours at 75-80°C, resulting in a liquefied starch suspension; (c) inactivating the α -amylase by low pH heat treatment; (d) cooling the liquefied starch suspension and adjusting the pH to 5.5 to 7.0; (e) adding steviol glycosides into the liquefied starch suspension, resulting in a reaction mixture; (f) adding a second batch of CGTase into the reaction mixture and incubating for 12 to 48 hours at 55-75°C; (g) inactivating the enzymes in the reaction mixture by heat treatment; (h) decolorizing the reaction mixture; (i) removing non-diterpene compounds by contacting the decolorized reaction mixture with macroporous adsorbent resin and subsequently eluting adsorbed diterpene glycosides with aqueous ethanol to result in a glycoside-containing aqueous ethanol eluate; (j) desalting the glycoside-containing aqueous ethanol eluate with ion-exchange resins; (k) removing ethanol from the aqueous ethanol eluate, resulting in an aqueous eluate; (l) concentrating and drying the aqueous eluate to obtain the dried glucosyl stevia composition, (m) suspending the dried glucosyl stevia composition in aqueous alcohol to form a suspension, removing unmodified steviol glycosides from the suspension, and separating and drying the highly purified glucosyl stevia composition;
A touch sensor assembly comprising: a touch substrate configured to be attached to a panel having a touch point ; and a piezo disk fixed to the touch substrate and having a first and a second pole , the first pole being disposed on a surface of the second pole facing the touch substrate ; wherein the touch substrate includes: - a pressing part , which is in contact with the first pole and electrically connected thereto, and which is electrically connected at a plurality of points to a plurality of first wirings provided on the touch substrate ; and - a fixing surface electrically connected to the second pole and electrically connected to second wirings provided on the touch substrate . a touch substrate configured to be attached to a panel having a touch point ; and a piezo disk fixed to the touch substrate and having a first and a second pole , the first pole being disposed on a surface of the second pole facing the touch substrate ; wherein the touch substrate includes: - a pressing part , which is in contact with the first pole and electrically connected thereto, and which is electrically connected at a plurality of points to a plurality of first wirings provided on the touch substrate ; and - a fixing surface electrically connected to the second pole and electrically connected to second wirings provided on the touch substrate . - a pressing part , which is in contact with the first pole and electrically connected thereto, and which is electrically connected at a plurality of points to a plurality of first wirings provided on the touch substrate ; and - a fixing surface electrically connected to the second pole and electrically connected to second wirings provided on the touch substrate .
A mounting element for vehicle-side assembly of an airbag module comprising at least one mounting plate adapted to be mounted on the vehicle side which in its plate plane (E) can be non-rotatably coupled to an airbag , wherein the mounting plate includes an extension , characterized in that the extension has at least one undercut which can be fixed to a recess of the airbag or of a retaining element , so that the mounting element can be fixed perpendicularly to the plate plane (E) non-rotatably to the airbag or to the retaining element maintaining the latter in its folded state.
A method for wireless communications by a user equipment, UE, capable of communicating via at least first and second radio access technologies, RATs, comprising: dynamically switching to a location, within the UE, as an anchor point for processing packets based, at least in part, on operating states of the first and second RATs, wherein the location of the anchor point is selected based, at least in part, on whether the UE is actively communicating via the first RAT, the second RAT, or both; and wherein the location of the anchor point is selected further based, at least in part, on a destination of the packets, wherein the location of the anchor point comprises a modem processor or an applications processor; and routing packets received via at least one of the first and second RATs to the dynamically switched location of the anchor point. dynamically switching to a location, within the UE, as an anchor point for processing packets based, at least in part, on operating states of the first and second RATs, wherein the location of the anchor point is selected based, at least in part, on whether the UE is actively communicating via the first RAT, the second RAT, or both; and wherein the location of the anchor point is selected further based, at least in part, on a destination of the packets, wherein the location of the anchor point comprises a modem processor or an applications processor; and routing packets received via at least one of the first and second RATs to the dynamically switched location of the anchor point.
A mobile carrier (105a,105a+b,111,205) for two or more electric robotic lawn mowers (101a,b..,101'a,b..,201a,b..) which are essentially equal, every one of which has a rechargeable battery with an electric contact placed on the mower for recharging the battery, characterized in comprising A) two or more holders (107a,b..,112a,b..,207a,b..) which geometrically are essentially equal with respect to configured to retain each one of said robotic mowers (101a,b..,101'a,b..,201a,b..) and being part of a stand which is part of the mobile carrier (105a,105a+b,111,205), B) an electric charging system (231/235+233+234) configured to recharge a rechargeable battery of an electric robotic lawn mower placed in a holder, and wherein the electric charging system is further configured to connect an external electric power supply system to the individual holders (107a,b..,112a,b..,207a,b..) of the carrier (105a,105a+b,111,205) and comprising: a) an electric contact in the interior of every holder (107a,b..,112a,b..,207a,b..) matching the electric contact on a mower (101a,b..,101'a,b..,201a,b..) intended to be placed in the holder (107a,b..,112a,b..,207a,b..), b) one or more other electric contacts for connection of the electric charging system (231/235+233+234) of the carrier (105a,105a+b,111,205) to an external electric power supply system, and c) cablings between holder contacts of (a) and the contacts of (b) . A) two or more holders (107a,b..,112a,b..,207a,b..) which geometrically are essentially equal with respect to configured to retain each one of said robotic mowers (101a,b..,101'a,b..,201a,b..) and being part of a stand which is part of the mobile carrier (105a,105a+b,111,205), B) an electric charging system (231/235+233+234) configured to recharge a rechargeable battery of an electric robotic lawn mower placed in a holder, and wherein the electric charging system is further configured to connect an external electric power supply system to the individual holders (107a,b..,112a,b..,207a,b..) of the carrier (105a,105a+b,111,205) and comprising: a) an electric contact in the interior of every holder (107a,b..,112a,b..,207a,b..) matching the electric contact on a mower (101a,b..,101'a,b..,201a,b..) intended to be placed in the holder (107a,b..,112a,b..,207a,b..), b) one or more other electric contacts for connection of the electric charging system (231/235+233+234) of the carrier (105a,105a+b,111,205) to an external electric power supply system, and c) cablings between holder contacts of (a) and the contacts of (b) . a) an electric contact in the interior of every holder (107a,b..,112a,b..,207a,b..) matching the electric contact on a mower (101a,b..,101'a,b..,201a,b..) intended to be placed in the holder (107a,b..,112a,b..,207a,b..), b) one or more other electric contacts for connection of the electric charging system (231/235+233+234) of the carrier (105a,105a+b,111,205) to an external electric power supply system, and c) cablings between holder contacts of (a) and the contacts of (b) .
A valve sleeve for a barrel of the CT40 type operating in association with a detonating assembly to actuate a firing pin , said valve sleeve including receiving means to ensure the mechanical support for the firing pin of the barrel during firing events, said receiving means being of revolution and consisting of a firing pin sleeve body of substantially cylindrical shape, a firing pin valve and a firing pin assembly inserted into said cylindrical sleeve body and the firing pin inserted into both the valve and the firing pin assembly , characterised in that a bushing is interposed between the valve and the firing pin assembly , said bushing being connected to the valve by a cylindrical pin and being capable of sliding relative to the valve .
A method of delivering video frame data to multiple virtual reality (VR) displays (HMD1, HMD2), comprising: generating content for a first VR display (HMD1) and a second VR display (HMD2); sensing for competing needs for resources with real time requirements of the first VR display (HMD1) and the second VR display (HMD2); if competing needs for resources with real time requirements are sensed, determining a selected refresh offset for refreshes of the first VR display (HMD1) and the second VR display (HMD2) to avoid conflict between the competing needs for resources of the first VR display (HMD1) and the second VR display (HMD2), the selected refresh offset comprising an offset between a refresh of the first VR display (HMD1) and the second VR display (HMD2); imposing the selected refresh offset; and delivering the content to the first VR display (HMD1) and the second VR display (HMD2). generating content for a first VR display (HMD1) and a second VR display (HMD2); sensing for competing needs for resources with real time requirements of the first VR display (HMD1) and the second VR display (HMD2); if competing needs for resources with real time requirements are sensed, determining a selected refresh offset for refreshes of the first VR display (HMD1) and the second VR display (HMD2) to avoid conflict between the competing needs for resources of the first VR display (HMD1) and the second VR display (HMD2), the selected refresh offset comprising an offset between a refresh of the first VR display (HMD1) and the second VR display (HMD2); imposing the selected refresh offset; and delivering the content to the first VR display (HMD1) and the second VR display (HMD2).