mhurhangee/patent-ind-claim-en huggingface dataset:
A wiper blade for the cleaning of vehicle windows , with a wiper blade body , which is connected with a wiper arm by means of a wiper blade adapter , wherein the wiper blade adapter consists of a first adapter element and a second adapter element , which are arranged pivotably with respect to one another in an axis , wherein on the first adapter element a first holding arrangement is arranged for securing the wiper blade body in the longitudinal direction of the wiper blade with a flexible tongue , and with a detent element arranged on the flexible tongue for form-fitting arrangement in a mount of the wiper arm , and with a second holding arrangement , which secures the wiper blade on the wiper arm additionally in the longitudinal direction of the wiper blade body , characterized in that the second holding arrangement is arranged in operative connection with the first holding arrangement and is constructed such that an actuation of the first holding arrangement is enabled as a function of the pivoting angle (α) between the two adapter elements , and in that the second holding arrangement is directly connected with the first holding arrangement and with a pivoting angle (α), which is within the pivoting angles (α) during the wiping operation, on actuation of the first holding arrangement arrives into abutting contact with a counter-element, preferably the second adapter element , such that the actuation path of the first holding arrangement is delimited, so that the wiper blade body is secured on the wiper arm .
A test fixture , comprising: a receptacle configured to engage a base of a cartridge ; first and second electrical contacts coupled to the receptacle and configured to engage first and second heating terminals of an atomizer of the cartridge ; a controller configured to communicate with the cartridge through the electrical contacts when the base of the cartridge is engaged with the receptacle to test the cartridge ; characterized by an aperture configured to provide for a flow of air through the base of the cartridge . a receptacle configured to engage a base of a cartridge ; first and second electrical contacts coupled to the receptacle and configured to engage first and second heating terminals of an atomizer of the cartridge ; a controller configured to communicate with the cartridge through the electrical contacts when the base of the cartridge is engaged with the receptacle to test the cartridge ; characterized by an aperture configured to provide for a flow of air through the base of the cartridge .
Closing device for a container , in particular a glass container, which has a container opening , the closing device comprising a lid element for closing the container opening , a chamber which is arranged on the lid element , and an inner housing , the chamber and the inner housing having mutually corresponding closing means and opening means which interact with one another such that a discharge opening associated with the chamber can be released by a movement of the lid element relative to the inner housing , such that a medium stored in the chamber can escape into the container , and the chamber and the inner housing each having corresponding first thread means formed relative to a thread rotation axis , characterised in that the chamber has a first region (A) above the first thread means , and a second region (B) above and/or horizontally overlapping the first thread means and/or below the first thread means , the first region (A) being radially larger than the second region (B) with respect to the thread rotation axis , and in that the wall of the second chamber region (B) transitions into the wall of the first chamber region (A) in a materially uniform and integral manner, and in that the chamber has an opening in the region thereof that faces towards the lid element , a chamber lid of the first region (A) between the chamber and the lid element being closed by a film element which seals the chamber in a fluid-tight manner.
Circuitry for a plurality of induction elements for an aerosol generating device , the plurality of induction elements being for inductive heating of one or more susceptors p for heating an aerosol generating material in use, the circuitry comprising: a plurality of driver arrangements , each one of the plurality of driver arrangements being arranged to provide, from an input direct current, an alternating current to a respective one of the plurality of induction elements in use; each driver arrangement comprising one or more first transistors (Q1, Q2, Q3, Q4) each controllable by a switching potential to substantially allow current to pass therethrough in use; and characterised by a converter arranged to step up an input potential to provide the switching potential in use, the converter being common to each of the plurality of driver arrangements. a plurality of driver arrangements , each one of the plurality of driver arrangements being arranged to provide, from an input direct current, an alternating current to a respective one of the plurality of induction elements in use; each driver arrangement comprising one or more first transistors (Q1, Q2, Q3, Q4) each controllable by a switching potential to substantially allow current to pass therethrough in use; and characterised by a converter arranged to step up an input potential to provide the switching potential in use, the converter being common to each of the plurality of driver arrangements.
An air-conditioning apparatus comprising: a suction air temperature detection unit configured to detect a temperature of air that is sucked into a heat exchange unit or a temperature of space to be subjected to heat exchange as a suction air temperature (Ta); a cooled/heated air temperature detection unit configured to detect a temperature of air blown from the heat exchange unit or a temperature of the heat exchange unit as a cooled/heated air temperature (Tb); and a control device configured to acquire data on a temperature difference (ΔT) between the suction air temperature (Ta) detected by the suction air temperature detection unit and the cooled/heated air temperature (Tb) detected by the cooled/heated air temperature detection unit at different times as time-series data, and determine whether the heat exchange unit is dirty or not based on the time-series data regarding the temperature difference (ΔT), characterized in that the control device is configured to determine that the heat exchange unit is dirty, when the number of times a time period for which the temperature difference (ΔT) continuously falls within a range of a set temperature zone (Tbd) is longer than a set determination period (Pref) is larger than or equal to a set number of times. a suction air temperature detection unit configured to detect a temperature of air that is sucked into a heat exchange unit or a temperature of space to be subjected to heat exchange as a suction air temperature (Ta); a cooled/heated air temperature detection unit configured to detect a temperature of air blown from the heat exchange unit or a temperature of the heat exchange unit as a cooled/heated air temperature (Tb); and a control device configured to acquire data on a temperature difference (ΔT) between the suction air temperature (Ta) detected by the suction air temperature detection unit and the cooled/heated air temperature (Tb) detected by the cooled/heated air temperature detection unit at different times as time-series data, and determine whether the heat exchange unit is dirty or not based on the time-series data regarding the temperature difference (ΔT), characterized in that the control device is configured to determine that the heat exchange unit is dirty, when the number of times a time period for which the temperature difference (ΔT) continuously falls within a range of a set temperature zone (Tbd) is longer than a set determination period (Pref) is larger than or equal to a set number of times.
A composition comprising: (i) a bacterium or a yeast secreting an immuno-suppressing cytokine; and (ii) an antigen selected from α-gliadin and peptides therefrom, wherein said immuno-suppressing cytokine is capable of inducing a regulatory T- cell. (i) a bacterium or a yeast secreting an immuno-suppressing cytokine; and (ii) an antigen selected from α-gliadin and peptides therefrom,
A method of increasing the color gamut of objects illuminated by a multi-emitter light emitting device when dimming, comprising: independently driving each emitter in the device; and characterised by increasing the lumen output of at least one emitter while simultaneously decreasing the lumen output of at least one other emitter to linearly increase the ES TM-30-15 gamut index (Rg) as total lumen output of the multi-emitter light emitting device decreases, such that total color gamut of objects illuminated by the multi-emitter light emitting device increases while total lumen output of the multi-emitter light emitting device decreases. independently driving each emitter in the device; and characterised by increasing the lumen output of at least one emitter while simultaneously decreasing the lumen output of at least one other emitter to linearly increase the ES TM-30-15 gamut index (Rg) as total lumen output of the multi-emitter light emitting device decreases, such that total color gamut of objects illuminated by the multi-emitter light emitting device increases while total lumen output of the multi-emitter light emitting device decreases.
A buck-boost circuit, comprising a first switch (S1), a second switch (S2), a third switch (S3), a fourth switch (S4), a first inductor (L1), a first capacitor (C1), a second capacitor (C2), and a control module configured to control switches based on a relationship between a target voltage V tar and an input voltage V BAT ; wherein a first terminal of the first switch (S1) is connected to an anode of an input power supply (V BAT ); a first terminal of the second switch (S2) is connected to the anode of the input power supply (V BAT ); a first terminal of the third switch (S3) and a first terminal of the first capacitor (C1) are connected to a second terminal of the first switch (S1); a second terminal of the third switch (S3) is connected to a cathode of the input power supply (V BAT ); a first terminal of the fourth switch (S4), a second terminal of the first capacitor (C1), and a first terminal of the first inductor (L1) are connected to a second terminal of the second switch (S2); a second terminal of the fourth switch (S4) is connected to the cathode of the input power supply (V BAT ); a second terminal of the first inductor (L1) is connected to an anode of an output power supply (V out ); and the second capacitor (C2) is connected in parallel between the anode and a cathode of the output power supply (Vout), the buck-boost circuit is characterised by a sixth switch (S6) connected in parallel with the first capacitor (C1). the buck-boost circuit is characterised by a sixth switch (S6) connected in parallel with the first capacitor (C1).
Medicine feeding canister for in an automated medicine dispensing device, wherein the canister comprises a housing , a storage for storing a plurality of medicine units, a discharge for discharging the medicine units and a feeding mechanism for feeding the stored medicine units to the discharge , the storage comprises a plurality of medicine holders , each of the medicine holders being arranged for holding one medicine unit separated from the other held medicine units, and wherein the feeding mechanism is arranged for feeding the medicine units in the medicine holders to the discharge, wherein the medicine holders are movable, in particular with respect to the discharge , for feeding the medicine units to the discharge , characterized in that the medicine feeding canister comprises a plurality of stacked holding surfaces for holding a plurality of layers of medicine units, wherein each of the holding surfaces comprises an opening for transporting a medicine unit from said holding surface to a lower layer, wherein the openings in two subsequent layers are staggered and wherein the opening in the lowest holding surface forms the discharge .
A tire with a built-in puncture sealant comprising: a supporting tire carcass comprised of one or more layers of ply, an outer circumferential tread, and a radially inner layer, a pair of beads , sidewalls extending radially inward from the axial outer edges of the tread portion to join the respective beads, a sealant comprising a radially outer layer of sealant and a radially inner layer of sealant , disposed inwardly from said tire carcass inner layer, wherein the outer layer of sealant and the inner layer of sealant have different viscosities, characterized in that at least one of the sealant layers is formed from a sealant precursor layer comprising butyl rubber and peroxide, said sealant provides self-sealing properties to the tire, and said outer layer of sealant has a higher viscosity than said inner layer of sealant , and said inner layer of sealant has a lower viscosity than said outer layer of sealant . a supporting tire carcass comprised of one or more layers of ply, an outer circumferential tread, and a radially inner layer, a pair of beads , sidewalls extending radially inward from the axial outer edges of the tread portion to join the respective beads, a sealant comprising a radially outer layer of sealant and a radially inner layer of sealant , disposed inwardly from said tire carcass inner layer, wherein the outer layer of sealant and the inner layer of sealant have different viscosities, characterized in that at least one of the sealant layers is formed from a sealant precursor layer comprising butyl rubber and peroxide, said sealant provides self-sealing properties to the tire, and
An electric motor control system capable of controlling the driving of a shaft by an electric motor , the shaft being in transmission connection with the electric motor , wherein the electric motor is provided with a first encoder , with a sampling interval time thereof being a first interval time (ΔT); the shaft is provided with a second encoder , with a sampling interval time thereof being a second interval time (Δt), wherein the first interval time (ΔT) is greater than the second interval time (Δt); and the electric motor control system comprises: an electric motor motion signal detection part for providing an electric motor motion signal of the electric motor based on a received first encoder signal sent by the first encoder ; a shaft motion signal detection part for providing a shaft motion signal of the shaft based on a received second encoder signal sent by the second encoder ; and a main control apparatus capable of receiving the electric motor motion signal and the shaft motion signal and calculating, according to same, an electric motor motion parameter of the electric motor at each time interval of the second interval time (Δt), and controlling the electric motor based on the electric motor motion parameter and an obtained electric motor control signal, wherein the main control apparatus calculates, according to the received electric motor motion signal obtained at an angular position change time (T) detected by the first encoder , and the received shaft motion signal, the electric motor motion parameter at each time interval of the second interval time (Δt) from the angular position change time (T), until the first encoder detects the next angular position change time (T'). an electric motor motion signal detection part for providing an electric motor motion signal of the electric motor based on a received first encoder signal sent by the first encoder ; a shaft motion signal detection part for providing a shaft motion signal of the shaft based on a received second encoder signal sent by the second encoder ; and a main control apparatus capable of receiving the electric motor motion signal and the shaft motion signal and calculating, according to same, an electric motor motion parameter of the electric motor at each time interval of the second interval time (Δt), and controlling the electric motor based on the electric motor motion parameter and an obtained electric motor control signal,
An ethylene polymer, wherein the ethylene polymer has a weight average molecular weight (Mw) of 220,000 or more and 1,500,000 or less, a proportion of a component (α130) with the lowest mobility of 40% or more and 60% or less and a ratio β/γ of a proportion of a middle motion component (β) to a proportion of a component (γ) with the highest mobility of 1.0 or more and 4.0 or less when a three-component approximation of free induction decay at 130°C measured by a solid echo method of pulse NMR is performed, wherein the solid echo method of pulse NMR is measured under the conditions described in the section dedicated to the methods of measurement of the description. a weight average molecular weight (Mw) of 220,000 or more and 1,500,000 or less, a proportion of a component (α130) with the lowest mobility of 40% or more and 60% or less and a ratio β/γ of a proportion of a middle motion component (β) to a proportion of a component (γ) with the highest mobility of 1.0 or more and 4.0 or less when a three-component approximation of free induction decay at 130°C measured by a solid echo method of pulse NMR is performed, wherein the solid echo method of pulse NMR is measured under the conditions described in the section dedicated to the methods of measurement of the description.
A method of manufacturing a textured surface, comprising: disposing a nanoparticle-based ink onto a substrate; imprinting the ink with a mold comprising a plurality of features to form a textured nanoparticle-based ink; and performing at least one cycle of atomic layer deposition, ALD, on the textured nanoparticle-based ink to fill pores in the textured nanoparticle-based ink and to form the textured surface, wherein the ALD comprises sequentially depositing a first reactant comprising MX y , MR y , M(R) y , M(NR) y , M(OR) y , MX y R z , MX y (R) z , MX y (NR) z , MX y (OR) z , MCp 2 , or combinations thereof, and a second reactant comprising water, oxygen, or ozone, wherein each y and z is independently an integer from 2 to 8; M is a metal; each X is independently F, Cl, Br, or I; each R is independently hydrogen or a substituted or unsubstituted C 1-20 alkyl; and Cp is a substituted or unsubstituted cyclopentadienyl; and following the at least one cycle of ALD, treating the nanoparticle-based ink by exposing to electromagnetic radiation or by heating. disposing a nanoparticle-based ink onto a substrate; imprinting the ink with a mold comprising a plurality of features to form a textured nanoparticle-based ink; and performing at least one cycle of atomic layer deposition, ALD, on the textured nanoparticle-based ink to fill pores in the textured nanoparticle-based ink and to form the textured surface, wherein the ALD comprises sequentially depositing a first reactant comprising MX y , MR y , M(R) y , M(NR) y , M(OR) y , MX y R z , MX y (R) z , MX y (NR) z , MX y (OR) z , MCp 2 , or combinations thereof, and a second reactant comprising water, oxygen, or ozone, wherein each y and z is independently an integer from 2 to 8; M is a metal; each X is independently F, Cl, Br, or I; each R is independently hydrogen or a substituted or unsubstituted C 1-20 alkyl; and Cp is a substituted or unsubstituted cyclopentadienyl; and each y and z is independently an integer from 2 to 8; M is a metal; each X is independently F, Cl, Br, or I; each R is independently hydrogen or a substituted or unsubstituted C 1-20 alkyl; and Cp is a substituted or unsubstituted cyclopentadienyl; and following the at least one cycle of ALD, treating the nanoparticle-based ink by exposing to electromagnetic radiation or by heating.
Device for inspecting the structure of a composite part by laser-ultrasound, characterized in that it includes an inspecting head including a source emitting at least one laser beam, and a handling robot configured to hold the part and move the surface of said part relative to the inspecting head in such a way that said surface is able to be scanned by the laser beam emitted by the source with which the inspecting head is equipped, said laser source including means for carrying out a scan of the emitted laser beam, the scan being carried out along a given scanning axis with a given scanning amplitude, the handling robot being configured in order to be able to move, after each scan, the surface of the part along an axis substantially perpendicular to the axis along which the laser beam moves, the movement of the part being synchronized with the scanning of the laser beam .
A method for fastening slab-shaped objects or packs of slab-shaped objects to a support element using strapping, wherein the support element comprises a base to which a rest element , which rises from the base and which is destined to provide a rest for the slab-shaped objects or the packs of slab-shaped objects , is associated, characterised in that it comprises following steps, which occur in a cyclical way: - arranging a slab-shaped object or a pack of slab-shaped objects , on the base in a vertical position, resting the slab-shaped object or pack of slab-shaped objects , by an edge thereof on the base ; - realising at least a binding with a strap ring which fastens the slab-shaped object , or the pack of slab-shaped objects which has just been arranged on the base , the rest element and the slab-shaped objects or packs of slab-shaped objects which have previously been arranged on the base and which have already been fastened to one another and to the rest element ; and it comprises a step of cyclically arranging each slab-shaped object or each pack of slab-shaped objects , alternatively on opposite sides of the rest element . - arranging a slab-shaped object or a pack of slab-shaped objects , on the base in a vertical position, resting the slab-shaped object or pack of slab-shaped objects , by an edge thereof on the base ; - realising at least a binding with a strap ring which fastens the slab-shaped object , or the pack of slab-shaped objects which has just been arranged on the base , the rest element and the slab-shaped objects or packs of slab-shaped objects which have previously been arranged on the base and which have already been fastened to one another and to the rest element ; and it comprises a step of cyclically arranging each slab-shaped object or each pack of slab-shaped objects , alternatively on opposite sides of the rest element .