mhurhangee/patent-ind-claim-en huggingface dataset:
Spray head, which comprises a spray head body , which comprises at least one nozzle , a heat-activated triggering element which allows flow of medium out the at least one nozzle when activated in connection with the spray head, over which triggering element a protection means is arranged, which protection means is in front of the nozzle in the protective position and mechanically protects the triggering element when the spray head is in a non-active state, and which protection means can be moved to another position, in which at least one nozzle and the triggering element are not protected by the protection means , wherein the triggering element is fitted onto a fixing body , which fixing body can be moved with respect to the spray head body between two positions, a first position in which the spray head is in the non-active state and the fixing body is in a retracted position, and a second position in which the fixing body is pushed out, and which fixing body is arranged to move with respect to the spray head body from the effect of the pressure of the medium from the first position to the second position and at the same time to exert force on the protection means , for moving the protection means from the protective position to said another position, in which case the spray head is placed into a state of readiness in the second position of the fixing body, wherein in the state of readiness the spray head can be activated by activation of the triggering element.
Super low noise industrial axial fan, having large diameter and adjustable pitch angle and comprising a blade comprising a front edge and a rear edge, the front edge being the leading edge of the blade facing the direction of rotation of the fan in an operative condition, and said rear edge being the trailing edge of the blade , said blade comprising a root portion by means of which the blade is fixed to the rotor of the fan, along with a first blade portion extending from said root portion and a second blade portion extending from said first portion , wherein the portion of the leading edge as defined by said first portion and the portion of said leading edge as defined by said second portion extend along different directions and define an obtuse angle (V) so that the projection of the blade on a plane containing both the portion of the leading edge as defined by the first portion and the portion of the trailing edge as defined by said first portion , is V-shaped. said blade comprising a root portion by means of which the blade is fixed to the rotor of the fan, along with a first blade portion extending from said root portion and a second blade portion extending from said first portion , wherein the portion of the leading edge as defined by said first portion and the portion of said leading edge as defined by said second portion extend along different directions and define an obtuse angle (V) so that the projection of the blade on a plane containing both the portion of the leading edge as defined by the first portion and the portion of the trailing edge as defined by said first portion , is V-shaped.
A nanowire batch comprising vertically aligned nanowires , each nanowire comprising: a semiconductor wire ; an electrically conductive catalyst nanoparticle disposed on the semiconductor wire; an organic functionalization disposed on the catalyst nanoparticle; and an dielectric shell encapsulating the semiconductor wire, wherein the organic functionalization is more hydrophilic or more hydrophobic than the dielectric shell, characterized in that the dielectric shell is inorganic, and wherein the inorganic dielectric shells of adjacent nanowires contact each other and the spacing between individual nanowires is controlled by a thickness of each of the inorganic dielectric shells. a semiconductor wire ; an electrically conductive catalyst nanoparticle disposed on the semiconductor wire; an organic functionalization disposed on the catalyst nanoparticle; and an dielectric shell encapsulating the semiconductor wire, wherein the organic functionalization is more hydrophilic or more hydrophobic than the dielectric shell, characterized in that the dielectric shell is inorganic, and wherein the inorganic dielectric shells of adjacent nanowires contact each other and the spacing between individual nanowires is controlled by a thickness of each of the inorganic dielectric shells.
A multi-lamp stage light, comprising: a base ; a support frame rotatably connected to the base ; a lamp support rotatably connected to the support frame ; and at least two lamp units rotatably connected to the lamp support which is provided with a third driving apparatus for driving the lamp units to rotate, wherein the lamp support includes a transverse support and a main support ,and wherein the transverse support is rotatably connected to the support frame via a second rotation shaft mechanism provided between the transverse support and the support frame , wherein the main support is rotatably connected to the transverse support via a fourth rotation shaft mechanism provided between the main support and the transverse support wherein the transverse support and the main support rotate around different axes characterized in that the third driving apparatus corresponds to the lamp units one by one, and each lamp unit is correspondingly driven by each third driving apparatus , wherein the main support is provided with notches corresponding to each lamp unit and each lamp unit is correspondingly provided in the notch , and wherein the main support is further provided with containing chambers in which each third driving apparatus is correspondingly placed and installed, and wherein the containing chambers and the notches are arranged alternately. a base ; a support frame rotatably connected to the base ; a lamp support rotatably connected to the support frame ; and at least two lamp units rotatably connected to the lamp support which is provided with a third driving apparatus for driving the lamp units to rotate, wherein the lamp support includes a transverse support and a main support ,and wherein the transverse support is rotatably connected to the support frame via a second rotation shaft mechanism provided between the transverse support and the support frame , wherein the main support is rotatably connected to the transverse support via a fourth rotation shaft mechanism provided between the main support and the transverse support wherein the transverse support and the main support rotate around different axes characterized in that the third driving apparatus corresponds to the lamp units one by one, and each lamp unit is correspondingly driven by each third driving apparatus , wherein the main support is provided with notches corresponding to each lamp unit and each lamp unit is correspondingly provided in the notch , and wherein the main support is further provided with containing chambers in which each third driving apparatus is correspondingly placed and installed, and wherein the containing chambers and the notches are arranged alternately.
An adhesive film, which comprises: (A) a curable resin with a structure containing an alicyclic hydrocarbon with 5 to 8 carbons, which is substituted by at least 4 alkyl groups of 4 to 12 carbons, which further contains at least one curable part; and (B) a polymerization initiator with a one-hour half-life temperature of 140°C or higher, wherein (A) comprises the structure shown by the following General Formula . General Formula , and wherein the content of (A) is 50% by mass or more of the resin component constituting the film. (A) a curable resin with a structure containing an alicyclic hydrocarbon with 5 to 8 carbons, which is substituted by at least 4 alkyl groups of 4 to 12 carbons, which further contains at least one curable part; and (B) a polymerization initiator with a one-hour half-life temperature of 140°C or higher, wherein (A) comprises the structure shown by the following General Formula . General Formula , and wherein the content of (A) is 50% by mass or more of the resin component constituting the film.
A multicolor dispersion comprising a protective composition and two or more colorant dispersions, wherein said protective composition comprises, (a) an aqueous dispersion of polymer particles comprising from 89% to 99.45% by weight, based on the total dry weight of the protective composition, of polymer particles, wherein said polymer particles further comprise from 0.33% to 2% by weight, based on the total dry weight of the polymer, of an anionic stabilizer monomer represented by the following Formula I, wherein R 1 is a linkage group between R 2 and a vinyl group, R 2 is ethylene or propene or butylene, n is from 0 to 50, M is a counter salt of potassium, sodium, ammonium or lithium; wherein said aqueous dispersion of polymer particles further comprises from 0.33% to 5% by weight, based on the total dry weight of the polymer, of a non-reactive anionic surfactant having an ethylene oxide chain length of less than 11; and (b) from 0.5% to 10% by weight, based on the total dry weight of the protective composition, of a lithium magnesium silicate clay. (a) an aqueous dispersion of polymer particles comprising from 89% to 99.45% by weight, based on the total dry weight of the protective composition, of polymer particles, wherein said polymer particles further comprise from 0.33% to 2% by weight, based on the total dry weight of the polymer, of an anionic stabilizer monomer represented by the following Formula I, wherein R 1 is a linkage group between R 2 and a vinyl group, R 2 is ethylene or propene or butylene, n is from 0 to 50, M is a counter salt of potassium, sodium, ammonium or lithium; wherein said aqueous dispersion of polymer particles further comprises from 0.33% to 5% by weight, based on the total dry weight of the polymer, of a non-reactive anionic surfactant having an ethylene oxide chain length of less than 11; and wherein R 1 is a linkage group between R 2 and a vinyl group, R 2 is ethylene or propene or butylene, n is from 0 to 50, M is a counter salt of potassium, sodium, ammonium or lithium; wherein said aqueous dispersion of polymer particles further comprises from 0.33% to 5% by weight, based on the total dry weight of the polymer, of a non-reactive anionic surfactant having an ethylene oxide chain length of less than 11; and (b) from 0.5% to 10% by weight, based on the total dry weight of the protective composition, of a lithium magnesium silicate clay.
A device for performing a self-test of an electrostatic charge variation sensor, comprising: a first stimulus electrode (14; 14A) configured to transmit a stimulus signal; a first receiving electrode (12; 12A) facing the first stimulus electrode (12; 12A), the first receiving electrode (12; 12A) configured to receive an electrostatic charge variation in a surrounding environment; an electrostatic charge variation sensor coupled to the first receiving electrode (12; 12A), the electrostatic charge variation sensor configured to generate a first electrostatic charge variation measurement of the electrostatic charge variation when no stimulus signal is applied to the first stimulus electrode (14; 14A) and generate a second electrostatic charge variation measurement of the electrostatic charge variation, the second electrostatic charge variation measurement being generated in response to the stimulus signal being transmitted by the first stimulus electrode; and a processor coupled to the electrostatic charge variation sensor , the processor configured to perform a self-test on the electrostatic charge variation sensor using the first electrostatic charge variation measurement and the second electrostatic charge variation measurement, and output a result of the self-test that indicates the electrostatic charge variation sensor has passed or failed the self-test. a first stimulus electrode (14; 14A) configured to transmit a stimulus signal; a first receiving electrode (12; 12A) facing the first stimulus electrode (12; 12A), the first receiving electrode (12; 12A) configured to receive an electrostatic charge variation in a surrounding environment; an electrostatic charge variation sensor coupled to the first receiving electrode (12; 12A), the electrostatic charge variation sensor configured to generate a first electrostatic charge variation measurement of the electrostatic charge variation when no stimulus signal is applied to the first stimulus electrode (14; 14A) and generate a second electrostatic charge variation measurement of the electrostatic charge variation, the second electrostatic charge variation measurement being generated in response to the stimulus signal being transmitted by the first stimulus electrode; and a processor coupled to the electrostatic charge variation sensor , the processor configured to perform a self-test on the electrostatic charge variation sensor using the first electrostatic charge variation measurement and the second electrostatic charge variation measurement, and output a result of the self-test that indicates the electrostatic charge variation sensor has passed or failed the self-test.
A distributor for receiving water imparted through the distributor and directing the water to flow along a freeze plate of an ice maker so that the water forms into ice on the freeze plate, the distributor comprising: a distributor piece formed from a single piece of monolithic material; the distributor piece comprising a bottom wall defining a portion of a flow path along which the distributor directs water to flow through the distributor and extending forward from a rear wall to a front end portion adjacent a downstream end of the distributor; the distributor further comprising: the rear wall adjacent an upstream end of the distributor; and a tube protruding rearward from the rear wall, the rear wall having an opening immediately above the bottom wall through which the tube fluidly communicates with the distributor; wherein the bottom wall comprises a rear section that slopes downward to the rear wall and a front section that slopes downward to the front end portion. the rear wall adjacent an upstream end of the distributor; and a tube protruding rearward from the rear wall, the rear wall having an opening immediately above the bottom wall through which the tube fluidly communicates with the distributor; wherein the bottom wall comprises a rear section that slopes downward to the rear wall and a front section that slopes downward to the front end portion.
Wall rail arrangement for securing a stationary wall element of a shower cubicle on a room wall , comprising a wall rail , wherein the wall rail has a U-shaped profile, between the flanks of which the wall element can be inserted and clamped and wherein the wall rail can be secured to the room wall by means of screws , wherein the U-shaped profile has at least two first continuous bores for the screws centrally disposed in the profile cross-section of the profile base that rests against the room wall , wherein the U-shaped profile has cylindrical widening of the clear width of the U-shaped profile coaxially to the respective first bore between the flanks and wherein a guide bushing for a drill can be coaxially inserted into the cylindrical widening .
A process for recovery of a precious metal catalyst from an organosilicon product-containing liquid reaction medium containing precious metal catalyst in solution or colloidal form, the process comprising: a) contacting the liquid reaction medium containing precious metal catalyst with a precious metal adsorbent to adsorb precious metal thereon wherein the precious metal adsorbent is a functionalized silica gel, and wherein the contacting is conducted in a continuous manner; b) separating precious metal adsorbent from the liquid reaction medium; and, c) recovering adsorbed precious metal from said precious metal adsorbent, in which process no dilution solvent is used, and wherein the precious metal adsorption conditions comprise a temperature range of from 25 °C to 200 ° C, a pressure range of from 101.33 kPa (atmospheric pressure) to 10133 kPa (100 atmospheres), a residence time of the liquid reaction medium to be contacted with said precious metal adsorbent of 1 minute to 24 hours; and, wherein the precious metal catalyst is selected from palladium, rhodium, ruthenium, rhenium and platinum. a) contacting the liquid reaction medium containing precious metal catalyst with a precious metal adsorbent to adsorb precious metal thereon wherein the precious metal adsorbent is a functionalized silica gel, and wherein the contacting is conducted in a continuous manner; b) separating precious metal adsorbent from the liquid reaction medium; and, c) recovering adsorbed precious metal from said precious metal adsorbent, in which process no dilution solvent is used, and wherein the precious metal adsorption conditions comprise a temperature range of from 25 °C to 200 ° C, a pressure range of from 101.33 kPa (atmospheric pressure) to 10133 kPa (100 atmospheres), a residence time of the liquid reaction medium to be contacted with said precious metal adsorbent of 1 minute to 24 hours; and, wherein the precious metal catalyst is selected from palladium, rhodium, ruthenium, rhenium and platinum.
Belt , comprising a belt body , wherein the belt body comprises an electrically conductive polyurethane, preferably consists of polyurethane, wherein in the belt body in a longitudinal direction (X) a plurality of tensile strength members is arranged and surrounded by the polymeric material of the belt body , wherein on a drive side the belt comprises a coating which forms a secure adhesive bond with the belt body, wherein the coating comprises a film layer and a fabric layer which is arranged between the belt body and the film layer and comprises voids, characterized in that at least points of the film layer comprise a perforation , wherein the perforation is at least partially filled by the polyurethane, wherein the film layer is electrically insulating. comprising a belt body , wherein the belt body comprises an electrically conductive polyurethane, preferably consists of polyurethane, wherein in the belt body in a longitudinal direction (X) a plurality of tensile strength members is arranged and surrounded by the polymeric material of the belt body , wherein on a drive side the belt comprises a coating which forms a secure adhesive bond with the belt body, wherein the coating comprises a film layer and a fabric layer which is arranged between the belt body and the film layer and comprises voids, characterized in that at least points of the film layer comprise a perforation , wherein the perforation is at least partially filled by the polyurethane, wherein the film layer is electrically insulating.
A computer-implemented method of predicting a tire gas temperature of an aircraft tire, the method being characterised in that it comprises: receiving data of a plurality of measurements of temperature with associated times after a landing event, the data measured by a tire monitoring device affixed to an aircraft wheel; selecting a temperature profile from a plurality of predetermined temperature profiles based on the received data, the plurality of temperature profiles representing heating and cooling under different conditions; and predicting a future tire gas temperature based on the selected temperature profile and the received data. receiving data of a plurality of measurements of temperature with associated times after a landing event, the data measured by a tire monitoring device affixed to an aircraft wheel; selecting a temperature profile from a plurality of predetermined temperature profiles based on the received data, the plurality of temperature profiles representing heating and cooling under different conditions; and predicting a future tire gas temperature based on the selected temperature profile and the received data.
Process for modifying an article comprising the step of: I) providing an article which is at least partially constructed from a build material comprising a thermoplastic polyurethane, characterized in that the process further comprises the steps of: II) at least partially contacting the build material for a first predetermined duration with a first liquid which contains ≥ 80% by weight based on the total weight of the first liquid of a polar aprotic solvent; III) contacting for a second predetermined duration the regions of the build material contacted with the first liquid in step II) with a second liquid which contains ≥ 80% by weight based on the total weight of the second liquid of a polar protic solvent. I) providing an article which is at least partially constructed from a build material comprising a thermoplastic polyurethane, II) at least partially contacting the build material for a first predetermined duration with a first liquid which contains ≥ 80% by weight based on the total weight of the first liquid of a polar aprotic solvent; III) contacting for a second predetermined duration the regions of the build material contacted with the first liquid in step II) with a second liquid which contains ≥ 80% by weight based on the total weight of the second liquid of a polar protic solvent.
A vehicle door trim coupling device for combining a first sub trim made of a thermoplastic resin material formed with a protrusion and a second sub trim made of a thermoplastic resin material formed with an accommodating groove for accommodating the protrusion of the first sub trim , the vehicle door trim coupling device comprising: a heat supplier configured to melt a part of the protrusion by radiant heat; and a molding part configured to press-mold the melted protrusion; wherein the heat supplier includes: a body ; a heating hole formed at a lower end of the body and accommodating a part of the protrusion ; and a heater formed spaced apart from a circumferential surface of the protrusion at a predetermined distance by being disposed inside of the heating hole , and configured to emit radiant heat, wherein the heater takes a shape of a continuously curved flat plate, and wherein a temperature of the heater is 200°C ∼ 800°C. a heat supplier configured to melt a part of the protrusion by radiant heat; and a molding part configured to press-mold the melted protrusion; wherein the heat supplier includes: a body ; a heating hole formed at a lower end of the body and accommodating a part of the protrusion ; and a heater formed spaced apart from a circumferential surface of the protrusion at a predetermined distance by being disposed inside of the heating hole , and configured to emit radiant heat, wherein the heater takes a shape of a continuously curved flat plate, and wherein a temperature of the heater is 200°C ∼ 800°C. a body ; a heating hole formed at a lower end of the body and accommodating a part of the protrusion ; and a heater formed spaced apart from a circumferential surface of the protrusion at a predetermined distance by being disposed inside of the heating hole , and configured to emit radiant heat, wherein the heater takes a shape of a continuously curved flat plate, and wherein a temperature of the heater is 200°C ∼ 800°C.
Air conditioning unit comprising a primary air intake pipe connected to the inlet of a first venturi-type device, the suction of which communicates with a first secondary air intake pipe , the outlet of the first venturi-type device communicating with the inlet of a second venturi-type device whereof the suction is connected to a second secondary air intake pipe comprising a main heat exchanger , the first venturi-type device comprising a primary air inlet nozzle comprising a diameter restriction at its free end, said free end opening into a suction chamber communicating with the first secondary air intake pipe , said suction chamber comprising an outlet orifice opposite the outlet of said inlet nozzle, said outlet orifice communicating with the inlet of the second venturi-type device, characterized in that the second venturi-type device comprises an intake chamber , said intake chamber having a section at least twice as large as the outlet orifice of the suction chamber .