mhurhangee/patent-ind-claim-en huggingface dataset:
A latch assembly , comprising: a safety latch releasable to raise from a lowered end position into a raised end position for, in use with an object, locking the object; a trigger latch adapted for fixing the safety latch in its lowered end position and operable for releasing the safety latch , wherein the safety latch is adapted to be reset from its raised end position into its lowered end position for unlocking the object, and wherein the safety latch is raisable by pivoting about a first axis , and the trigger latch is operable by being pivoted, preferably by the object in use with the latch assembly, about a second axis , wherein an orientation of the first axis and an orientation of the second axis are different and preferably set up an angle within a range of 45 to 135 degree, more preferably within 70 to 110 degree, and most preferably between 85 and 95 degree. a safety latch releasable to raise from a lowered end position into a raised end position for, in use with an object, locking the object; a trigger latch adapted for fixing the safety latch in its lowered end position and operable for releasing the safety latch , wherein the safety latch is adapted to be reset from its raised end position into its lowered end position for unlocking the object, and wherein the safety latch is raisable by pivoting about a first axis , and the trigger latch is operable by being pivoted, preferably by the object in use with the latch assembly, about a second axis , wherein an orientation of the first axis and an orientation of the second axis are different and preferably set up an angle within a range of 45 to 135 degree, more preferably within 70 to 110 degree, and most preferably between 85 and 95 degree.
A method of preparing a doped Si surface, comprising: a) cleaning a Si surface to remove oxides; and b) contacting the cleaned Si surface with a dilute dopant solution comprising: i) tetraethylene glycol dimethyl ether or tetraethylene glycol dimethyl ether and an additional solvent selected from the group consisting of triethylene glycol dimethyl ether, diethylene glycol dimethyl ether, dimethylsulfoxide, dimethylsulfone, N-methylpyrrolidone, 1 formyl piperidine, ethanolamine, diethanolamine, triethanolamine, linoleic acid, oleic acid, palmitoleic acid, safflower oil, grape seed oil, poppyseed oil, sunflower oil, hemp oil, corn oil, wheat germ oil, cottonseed oil, soybean oil, walnut oil, sesame oil, rice bran oil, pistachio oil, peanut oil, canola oil, chicken fat, egg yolk, linseed oil, lard, olive oil, palm oil, cocoa butter, macadamia oil, butter, and coconut oil; and ii) a dopant material effective for doping a Si surface, wherein said contacting is for a time and at a temperature effective to form a layer of dopant material on the surface; and wherein the additional solvent provides a solvent system having a combined flash point above 120 °C. a) cleaning a Si surface to remove oxides; and b) contacting the cleaned Si surface with a dilute dopant solution comprising: i) tetraethylene glycol dimethyl ether or tetraethylene glycol dimethyl ether and an additional solvent selected from the group consisting of triethylene glycol dimethyl ether, diethylene glycol dimethyl ether, dimethylsulfoxide, dimethylsulfone, N-methylpyrrolidone, 1 formyl piperidine, ethanolamine, diethanolamine, triethanolamine, linoleic acid, oleic acid, palmitoleic acid, safflower oil, grape seed oil, poppyseed oil, sunflower oil, hemp oil, corn oil, wheat germ oil, cottonseed oil, soybean oil, walnut oil, sesame oil, rice bran oil, pistachio oil, peanut oil, canola oil, chicken fat, egg yolk, linseed oil, lard, olive oil, palm oil, cocoa butter, macadamia oil, butter, and coconut oil; and ii) a dopant material effective for doping a Si surface, i) tetraethylene glycol dimethyl ether or tetraethylene glycol dimethyl ether and an additional solvent selected from the group consisting of triethylene glycol dimethyl ether, diethylene glycol dimethyl ether, dimethylsulfoxide, dimethylsulfone, N-methylpyrrolidone, 1 formyl piperidine, ethanolamine, diethanolamine, triethanolamine, linoleic acid, oleic acid, palmitoleic acid, safflower oil, grape seed oil, poppyseed oil, sunflower oil, hemp oil, corn oil, wheat germ oil, cottonseed oil, soybean oil, walnut oil, sesame oil, rice bran oil, pistachio oil, peanut oil, canola oil, chicken fat, egg yolk, linseed oil, lard, olive oil, palm oil, cocoa butter, macadamia oil, butter, and coconut oil; and ii) a dopant material effective for doping a Si surface,
An absolute encoder for determining a rotation amount of a main spindle that rotates a plurality of revolutions, the absolute encoder comprising; a first drive gear configured to rotate in accordance with rotation of the main spindle; a first driven gear that engages with the first drive gear; a second drive gear configured to rotate in accordance with rotation of the first driven gear; a second driven gear that engages with the second drive gear; a first angular sensor (Sp) configured to detect a rotation angle at which a second rotating body is rotated in accordance with rotation of the second driven gear; a third drive gear configured to rotate in accordance with rotation of the first driven gear; a third driven gear that engages with the third drive gear; a second angular sensor (Sr) configured to detect a rotation angle at which a third rotating body is rotated in accordance with rotation of the third driven gear; and magnets (Mp, Mr) respectively provided for the first angular sensor (Sp) and the second angular sensor (Sr), the absolute encoder being characterized in that in a plan view, the main spindle is provided between the magnets (Mp, Mr), on a line (Lm) that is perpendicular to the main spindle, the first angular sensor (Sp) and the second angular sensor (Sr) being provided on the line. a first drive gear configured to rotate in accordance with rotation of the main spindle; a first driven gear that engages with the first drive gear; a second drive gear configured to rotate in accordance with rotation of the first driven gear; a second driven gear that engages with the second drive gear; a first angular sensor (Sp) configured to detect a rotation angle at which a second rotating body is rotated in accordance with rotation of the second driven gear; a third drive gear configured to rotate in accordance with rotation of the first driven gear; a third driven gear that engages with the third drive gear; a second angular sensor (Sr) configured to detect a rotation angle at which a third rotating body is rotated in accordance with rotation of the third driven gear; and magnets (Mp, Mr) respectively provided for the first angular sensor (Sp) and the second angular sensor (Sr), the absolute encoder being characterized in that in a plan view, the main spindle is provided between the magnets (Mp, Mr), on a line (Lm) that is perpendicular to the main spindle, the first angular sensor (Sp) and the second angular sensor (Sr) being provided on the line.
A method for making a hydrogen-containing transition metal oxide, characterized by comprising the steps of: S100, providing a transition metal oxide having a structural formula of ABO z , wherein z is greater than or equal to 2 and smaller than or equal to 3; S200, soaking the transition metal oxide with an ionic liquid, water in the ionic liquid is capable of being decomposed into hydrogen ions and oxygen ions under an action of an electric field; and S300, applying an electric field to the transition metal oxide to cause the hydrogen ions in the ionic liquid to insert into the transition metal oxide to form the hydrogen-containing transition metal oxide, wherein the hydrogen-containing transition metal oxide is ABO x H y , wherein x is a numeric value in a range of 1 to 3, and y is a numeric value greater than 0 and smaller than or equal to 2.5; wherein A is one or more of alkaline earth metal elements and rare-earth metal elements, wherein the alkaline earth metal elements are Be, Mg, Ca, Sr or Ba, and the rare-earth metal elements are La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, or Yb; and wherein B is one or more of transition metal elements, wherein the transition metal elements are Co, Cr, Fe, Mn, Ni, Cu, Ti, Zn, Sc or V. S100, providing a transition metal oxide having a structural formula of ABO z , wherein z is greater than or equal to 2 and smaller than or equal to 3; S200, soaking the transition metal oxide with an ionic liquid, water in the ionic liquid is capable of being decomposed into hydrogen ions and oxygen ions under an action of an electric field; and S300, applying an electric field to the transition metal oxide to cause the hydrogen ions in the ionic liquid to insert into the transition metal oxide to form the hydrogen-containing transition metal oxide, wherein the hydrogen-containing transition metal oxide is ABO x H y , wherein x is a numeric value in a range of 1 to 3, and y is a numeric value greater than 0 and smaller than or equal to 2.5;
A refrigerator comprising a door including a front panel that defines at least a portion of an exterior of the refrigerator, the front panel including an operation area configured to receive a touch operation of a user, a touch sensor assembly located in the door rearward of the operation area, the touch sensor assembly including a plurality of sensors and being configured to generate an input signal based on the touch operation, and a sensor controller connected to the touch sensor assembly and configured to process the input signal received from the touch sensor assembly , characterized in that the sensor controller is configured to determine that the touch operation is a push operation based on determination that a voltage value of the processed input signal is less than or equal to a predetermined first threshold voltage value greater than 0 V, and the sensor controller is configured to determine that the touch operation is a release operation based on determination that the voltage value of the processed input signal is greater than or equal to a predetermined second threshold voltage value greater than 0 V, wherein the sensor controller comprises an amplification circuit configured to receive the input signal from the touch sensor assembly and amplify the input signal by a predetermined amplification ratio, and wherein the amplification circuit comprises: a differential amplifier (A2); a first resistor (R1) connected to a positive terminal of the differential amplifier (A2); a second resistor (R2) connected to an output terminal of the differential amplifier (A2) and a negative terminal of the differential amplifier (A2); a third resistor (R3) connected to the negative terminal of the differential amplifier (A2) and a reference power supply (Vref) with a value greater than 0 V; and a fourth resistor (R4) having one end connected to a first point between the first resistor (R1) and the positive terminal and the other end connected to a second point between the reference power supply (Vref) and the third resistor (R3). a differential amplifier (A2); a first resistor (R1) connected to a positive terminal of the differential amplifier (A2); a second resistor (R2) connected to an output terminal of the differential amplifier (A2) and a negative terminal of the differential amplifier (A2); a third resistor (R3) connected to the negative terminal of the differential amplifier (A2) and a reference power supply (Vref) with a value greater than 0 V; and a fourth resistor (R4) having one end connected to a first point between the first resistor (R1) and the positive terminal and the other end connected to a second point between the reference power supply (Vref) and the third resistor (R3).
A deployable reflector system , comprising: a support structure ; a reflector surface connected to the support structure ; the reflector surface comprised of a carbon nanotube, CNT, sheet which is highly reflective of electromagnetic waves; the support structure configured to transition from a compact stowed configuration to a larger deployed configuration; the CNT sheet intricately folded in accordance with a predetermined folding pattern to define a compact folded state when the support structure is in the stowed configuration, wherein the CNT sheet is comprised of a solid non-mesh surface; and the predetermined folding pattern configured to permit automatic extension of the CNT sheet from the compact folded state to a fully unfolded state when a tension force is applied to at least a portion of the CNT sheet by the support structure ; wherein the deployable reflector system is characterized in that the predetermined folding pattern is defined by three primary fold elements including an inner polygon , an outer polygon , and a plurality of wedges , wherein the inner polygon and the outer polygon have a common center point , and wherein the inner polygon has predetermined number corners defined by the value n, and the outer polygon has a predetermined number of corners defined by the value 2n. a support structure ; a reflector surface connected to the support structure ; the reflector surface comprised of a carbon nanotube, CNT, sheet which is highly reflective of electromagnetic waves; the support structure configured to transition from a compact stowed configuration to a larger deployed configuration; the CNT sheet intricately folded in accordance with a predetermined folding pattern to define a compact folded state when the support structure is in the stowed configuration, wherein the CNT sheet is comprised of a solid non-mesh surface; and the predetermined folding pattern configured to permit automatic extension of the CNT sheet from the compact folded state to a fully unfolded state when a tension force is applied to at least a portion of the CNT sheet by the support structure ; wherein the deployable reflector system is characterized in that the predetermined folding pattern is defined by three primary fold elements including an inner polygon , an outer polygon , and a plurality of wedges , wherein the inner polygon and the outer polygon have a common center point , and wherein the inner polygon has predetermined number corners defined by the value n, and the outer polygon has a predetermined number of corners defined by the value 2n.
A dishwasher comprising a dispenser accommodated in a dishwasher door and being arranged to dispose a washing agent in a compartment of the dishwasher at the opening of a dispenser lid , the dishwasher further comprising: at least one sensor arranged to detect a shock caused by the dispenser lid opening against the dishwasher door, the at least one sensor being arranged in the dishwasher door at a location where the dispenser lid opens against the dishwasher door, and to communicate a signal in response thereto indicative of the dispenser lid opening; and a controller arranged to receive the signal and to determine an action to be taken on the basis of the received signal. at least one sensor arranged to detect a shock caused by the dispenser lid opening against the dishwasher door, the at least one sensor being arranged in the dishwasher door at a location where the dispenser lid opens against the dishwasher door, and to communicate a signal in response thereto indicative of the dispenser lid opening; and a controller arranged to receive the signal and to determine an action to be taken on the basis of the received signal.
A device for connecting an optical cable and a protective tube fitted onto a bare optical fiber protruding from said optical cable , said device comprising: • a first end portion comprising a first channel configured to house a cut end of an external sheath of said optical cable from which said bare optical fiber exits; • a second end portion configured to receive an end of said protective tube ; and • a central portion interposed between said first end portion and said second end portion , said central portion comprising a second channel , said second channel comprising a tapered guiding wall configured to align said bare optical fiber with said protective tube when said protective tube is received in said second end portion , wherein said first end portion , said second end portion and said central portion form a unique integral body having a shape elongated in a longitudinal direction (z), said first channel and said second channel being reciprocally aligned along said longitudinal direction (z), characterized in that said first channel has an elongated longitudinal opening parallel to said longitudinal direction (z). • a first end portion comprising a first channel configured to house a cut end of an external sheath of said optical cable from which said bare optical fiber exits; • a second end portion configured to receive an end of said protective tube ; and • a central portion interposed between said first end portion and said second end portion , said central portion comprising a second channel , said second channel comprising a tapered guiding wall configured to align said bare optical fiber with said protective tube when said protective tube is received in said second end portion ,
A urea production plant comprising a high pressure (HP) synthesis section (HPSS) comprising an HP stripper (HPS), a reaction zone (HPR) for forming urea from NH 3 and CO 2 , and a condensation zone (HPCC), wherein the HP stripper (HPS) has an inlet for CO 2 feed as strip gas, the plant further comprising a medium-pressure (MP) treatment unit (MPTU), an MP dissociator (MPD), a first MP carbamate condensation section (MPCC-1), and a second MP carbamate condensation section (MPCC-2), a first flow line for urea solution from said reaction zone (HPR) to said HP stripper (HPS) and a second flow line for urea solution from said reaction zone (HPR) to said MP dissociator (MPD), wherein the plant comprises a liquid flow line for stripped urea solution from said HP stripper (HPS) to said MP treatment unit (MPTU), wherein the MP treatment unit (MPTU) has a gas outlet for a first MP gas stream , wherein the MP dissociator (MPD) has a gas outlet for a second MP gas stream , and wherein the HP synthesis section (HPSS) has a gas outlet and a pressure reducing element (V1) for a third MP gas stream , and wherein two gas streams selected from the group consisting of said first, second and third MP gas stream are combined and condensed in said first MP carbamate condensation section (MPCC-1). wherein the MP treatment unit (MPTU) has a gas outlet for a first MP gas stream , wherein the MP dissociator (MPD) has a gas outlet for a second MP gas stream , and wherein the HP synthesis section (HPSS) has a gas outlet and a pressure reducing element (V1) for a third MP gas stream , and wherein two gas streams selected from the group consisting of said first, second and third MP gas stream are combined and condensed in said first MP carbamate condensation section (MPCC-1).
Pumping system for the collection of domestic or commercial wastewater with a collecting tank and at least one feed pump to convey wastewater from the collecting tank via a riser into a sewer, and with a non-return valve unit comprising a non-return valve to prevent backflow into the collecting tank from the riser after deactivation of the feed pump and with a base body on which the non-return valve is mounted so that it is moveable and, starting from a closed position, opens a feed channel due to the conveying pressure of the feed pump , characterised by a spring element effectively connected to the non-return valve so that it exerts force on it in the direction of its closed position and by the spring element being formed by at least one yoke spring and contacting the non-return valve with at least one yoke .
An apparatus for attaching capping devices (41; 41A) to containers for a system for production of packaged food products, said apparatus comprising: a conveyor configured to suspend first items, a transportation track , and a plurality of carriers for arrangement on the transportation track , the respective carrier comprising a support surface for one or more second items, wherein the first items are capping devices (41; 41B) and the second items are containers , or vice versa, characterized by that the transportation track comprises a first magnetic arrangement , and the respective carrier comprises a second magnetic arrangement , said apparatus further comprising a control device which is configured to operate one of the first and second magnetic arrangements (22, 23; 24) to move the respective carrier on the transportation track into a position beneath the conveyor to align a second item on the respective carrier with a first item suspended by the conveyor , wherein the control device is further configured to move the support surface of the respective carrier towards the suspended conveyor to engage the second item with the first item. a conveyor configured to suspend first items, a transportation track , and a plurality of carriers for arrangement on the transportation track , the respective carrier comprising a support surface for one or more second items, wherein the first items are capping devices (41; 41B) and the second items are containers , or vice versa, characterized by that the transportation track comprises a first magnetic arrangement , and the respective carrier comprises a second magnetic arrangement , said apparatus further comprising a control device which is configured to operate one of the first and second magnetic arrangements (22, 23; 24) to move the respective carrier on the transportation track into a position beneath the conveyor to align a second item on the respective carrier with a first item suspended by the conveyor , wherein the control device is further configured to move the support surface of the respective carrier towards the suspended conveyor to engage the second item with the first item.
An antibody or antibody fragment comprising a first set of clone paired heavy and light CDR sequences selected from SEQ ID NOS: 19-24 or 25-30, and a second set of clone paired heavy and light CDR sequences selected from SEQ ID NOS: 31-36 or 37-42.