mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic tire comprising: a puncture-preventive sealant layer provided on an inner peripheral surface of a tread portion ; and a sound damper provided on an inner peripheral surface of the sealant layer , the sound damper including a sponge material having closed cell foam, characterised in that the sound damper has an air permeability of not higher than 20 mL/cm 2 /s, and the sound damper has a hardness of not higher than 300 N/314 cm 2 , wherein the air permeability is measured by adhering a sample (A) of the sponge material having a width (W) of 60 mm, a depth (L) of 60 mm, and a thickness (T) of 30 mm to a flat plate (B) having a thickness of 10 mm and having a hole (H) with a diameter of 1 mm, corresponding to an opening area of 0.00785 cm 2 , then adhering the sample (A) to the flat plate (B) such that the center of a surface, of the sample (A), having the width (W) × the depth (L) is located at the hole (H), increasing a pressure (P2) on the sponge material sample (A) side to set, as 200 kPa, the pressure difference P2 - P1 between the pressure (P2) and a pressure (P1) on the flat plate (B) side, then measuring a flow rate, in mL per second, of air leaking from the hole (H), and then converting the flow rate to a flow rate per opening area of 1.0 cm 2 , and the obtained flow rate represents the air permeability, in mL/cm 2 /s, and wherein the hardness of the sponge material is measured in accordance with Method D for a hardness test specified in Section 6 of JIS-K6400-2. a puncture-preventive sealant layer provided on an inner peripheral surface of a tread portion ; and a sound damper provided on an inner peripheral surface of the sealant layer , the sound damper including a sponge material having closed cell foam, characterised in that the sound damper has an air permeability of not higher than 20 mL/cm 2 /s, and the sound damper has a hardness of not higher than 300 N/314 cm 2 , wherein the air permeability is measured by adhering a sample (A) of the sponge material having a width (W) of 60 mm, a depth (L) of 60 mm, and a thickness (T) of 30 mm to a flat plate (B) having a thickness of 10 mm and having a hole (H) with a diameter of 1 mm, corresponding to an opening area of 0.00785 cm 2 , then adhering the sample (A) to the flat plate (B) such that the center of a surface, of the sample (A), having the width (W) × the depth (L) is located at the hole (H), increasing a pressure (P2) on the sponge material sample (A) side to set, as 200 kPa, the pressure difference P2 - P1 between the pressure (P2) and a pressure (P1) on the flat plate (B) side, then measuring a flow rate, in mL per second, of air leaking from the hole (H), and then converting the flow rate to a flow rate per opening area of 1.0 cm 2 , and the obtained flow rate represents the air permeability, in mL/cm 2 /s, and wherein the hardness of the sponge material is measured in accordance with Method D for a hardness test specified in Section 6 of JIS-K6400-2.
An electronic device for reading a fingerprint of a user, comprising a display and fingerprint reader assembly , the display and fingerprint reader assembly comprising: a display having an arrangement of light emitting pixels ; and a light guide ; characterized in that : a control circuit of the display and fingerprint reader assembly is adapted to control a group of pixels of the light emitting pixels , the pixels of the group being associated with a predetermined area of the display , to emit light during fingerprint detection for illuminating a user's finger that is placed at the predetermined area , so that the emitted light is reflected by the user's finger, wherein the emitted light is incident on the light guide and propagates in the light guide to one or more light sensors of the display and fingerprint reader assembly ; and the one or more light sensors are positioned around the light guide to optimize detection of the reflected light, which has propagated in the light guide to the one or more of the light sensors . a display having an arrangement of light emitting pixels ; and a light guide ; characterized in that : a control circuit of the display and fingerprint reader assembly is adapted to control a group of pixels of the light emitting pixels , the pixels of the group being associated with a predetermined area of the display , to emit light during fingerprint detection for illuminating a user's finger that is placed at the predetermined area , so that the emitted light is reflected by the user's finger, wherein the emitted light is incident on the light guide and propagates in the light guide to one or more light sensors of the display and fingerprint reader assembly ; and the one or more light sensors are positioned around the light guide to optimize detection of the reflected light, which has propagated in the light guide to the one or more of the light sensors . a control circuit of the display and fingerprint reader assembly is adapted to control a group of pixels of the light emitting pixels , the pixels of the group being associated with a predetermined area of the display , to emit light during fingerprint detection for illuminating a user's finger that is placed at the predetermined area , so that the emitted light is reflected by the user's finger, wherein the emitted light is incident on the light guide and propagates in the light guide to one or more light sensors of the display and fingerprint reader assembly ; and the one or more light sensors are positioned around the light guide to optimize detection of the reflected light, which has propagated in the light guide to the one or more of the light sensors .
A refill packaging for pasty and/or creamy products, wherein the products can be removed by hand from the refill packaging , comprising an outer container and an inner bag with bag opening (3.1), and a closure , wherein the inner bag can contain a pasty or creamy product , and the outer container can accommodate the inner bag , characterized in that the outer container - consists of at least two parts , wherein the parts and thus the container , are able to be reversibly closed, - is produced from one or more materials, which have a flexural modulus E f in accordance with DIN EN ISO 178 of 50 to 5'000 MPa, in particular of 100 to 3'000 MPa, and a wall thickness of 0.2 to 4 mm, in particular of 0.5 to 3 mm, measured in accordance with DIN 862/ Form A1 with a micrometer, whereby the outer container is able to be compressed reversibly, and - has at least one magnetic element . - consists of at least two parts , wherein the parts and thus the container , are able to be reversibly closed, - is produced from one or more materials, which have a flexural modulus E f in accordance with DIN EN ISO 178 of 50 to 5'000 MPa, in particular of 100 to 3'000 MPa, and a wall thickness of 0.2 to 4 mm, in particular of 0.5 to 3 mm, measured in accordance with DIN 862/ Form A1 with a micrometer, whereby the outer container is able to be compressed reversibly, and - has at least one magnetic element .
An organic electronic device provided on a substrate comprising: a permeation barrier film structure having a hybrid permeation barrier composition, the permeation barrier film structure coated over the organic electronic device , said permeation barrier film structure comprising: one or more bilayers, wherein each of the bilayers comprises: a first layer having a first composition corresponding to a first CF 4 -O 2 Plasma Reactive Ion Etch Rate of less than 65 nm/min; and a second layer having a second composition corresponding to a second CF 4 -O 2 Plasma Reactive Ion Etch Rate of greater than 80 nm/min, wherein the second CF 4 -O 2 Plasma Reactive Ion Etch Rate is greater than the first CF 4 -O 2 Plasma Reactive Ion Etch Rate by a factor greater than 1.2; wherein the CF 4 -O 2 Plasma Reactive Ion Etch Rate refers to the etch rate obtained using a CF 4 -O 2 plasma reactive ion etch process that would etch thermally grown SiO 2 at the rate of 45 nm/min; wherein the density of the first layer is higher than the density of the second layer and the first layer is directly deposited on a body of the organic electronic device and the second layer is deposited on the first layer; wherein each of the first and second layers comprises a homogeneous mixture of a polymeric material and a non-polymeric material; wherein: (a) the polymeric material is silicone and the non-polymeric material is one or more silicon oxides; or (b) the polymeric material is silicone and the non-polymeric material is silicon nitride. a first layer having a first composition corresponding to a first CF 4 -O 2 Plasma Reactive Ion Etch Rate of less than 65 nm/min; and a second layer having a second composition corresponding to a second CF 4 -O 2 Plasma Reactive Ion Etch Rate of greater than 80 nm/min, wherein the second CF 4 -O 2 Plasma Reactive Ion Etch Rate is greater than the first CF 4 -O 2 Plasma Reactive Ion Etch Rate by a factor greater than 1.2; wherein the CF 4 -O 2 Plasma Reactive Ion Etch Rate refers to the etch rate obtained using a CF 4 -O 2 plasma reactive ion etch process that would etch thermally grown SiO 2 at the rate of 45 nm/min; wherein the density of the first layer is higher than the density of the second layer and the first layer is directly deposited on a body of the organic electronic device and the second layer is deposited on the first layer; wherein each of the first and second layers comprises a homogeneous mixture of a polymeric material and a non-polymeric material; wherein: (a) the polymeric material is silicone and the non-polymeric material is one or more silicon oxides; or (b) the polymeric material is silicone and the non-polymeric material is silicon nitride. (a) the polymeric material is silicone and the non-polymeric material is one or more silicon oxides; or (b) the polymeric material is silicone and the non-polymeric material is silicon nitride.
A sprayable alkaline or neutral cleaning composition with reduced misting comprising: (a) an effective cleaning amount of an alkalinity source and/or oxidizing source; (b) from 0.0001 wt-% to 1 wt-% of a high molecular weight inverse emulsion polymer; (c) at least one surfactant; and (d) water; wherein the alkaline or neutral composition reduces the formation of airborne aerosol particles having a micron size of less than 10 when sprayed, and a use solution of the composition has a shear viscosity from 1 to 1000 mPa*s (cPs), and wherein the high molecular weight inverse emulsion polymer does not increase the shear viscosity of the composition more than 10%. (a) an effective cleaning amount of an alkalinity source and/or oxidizing source; (b) from 0.0001 wt-% to 1 wt-% of a high molecular weight inverse emulsion polymer; (c) at least one surfactant; and (d) water;
A utility vehicle comprising: a travel structure including a front wheel , a rear wheel , a steering structure mounted to the front wheel , and a drive source that drives the front wheel and/or the rear wheel ; circuitry that controls the travel structure to effect autonomous travel without manned operation in a given travel area; a route setter that sets a travel route for the autonomous travel; a vehicle location detector that detects a location of the utility vehicle ; and a target detector that detects a monitoring target in the travel area, wherein in case that the monitoring target is detected at a location during the autonomous travel, the circuitry stores the location of the monitoring target as history information, and wherein the route setter sets a reference point at the location where the monitoring target was detected and sets the travel route based on the reference point, the utility vehicle being characterized in that : the reference point is one of a plurality of reference points; the route setter assigns an importance level for setting of the travel route to each of the reference points such that the newer the reference point is, the higher the importance level is; and the route setter sets the travel route around each of the reference points in a different pattern depending on the importance level. a travel structure including a front wheel , a rear wheel , a steering structure mounted to the front wheel , and a drive source that drives the front wheel and/or the rear wheel ; circuitry that controls the travel structure to effect autonomous travel without manned operation in a given travel area; a route setter that sets a travel route for the autonomous travel; a vehicle location detector that detects a location of the utility vehicle ; and a target detector that detects a monitoring target in the travel area, wherein in case that the monitoring target is detected at a location during the autonomous travel, the circuitry stores the location of the monitoring target as history information, and wherein the route setter sets a reference point at the location where the monitoring target was detected and sets the travel route based on the reference point, the utility vehicle being characterized in that : the reference point is one of a plurality of reference points; the route setter assigns an importance level for setting of the travel route to each of the reference points such that the newer the reference point is, the higher the importance level is; and the route setter sets the travel route around each of the reference points in a different pattern depending on the importance level. the reference point is one of a plurality of reference points; the route setter assigns an importance level for setting of the travel route to each of the reference points such that the newer the reference point is, the higher the importance level is; and the route setter sets the travel route around each of the reference points in a different pattern depending on the importance level.
A tank for a liquid solution based on water and urea which is suitable for being combined with a selective catalytic reduction system and which comprises: • a container including an upper wall ; • a filler pipe which is positioned on the upper wall of the container and which is suitable for introducing the liquid solution, said filler pipe comprising a member with an elongate shape which extends about an axis (X); • a lower opening , from which the liquid solution being introduced passes into the container and which protrudes with respect to the upper wall towards the interior of the container ; • a closure float which is positioned in the container and which is connected to the lower opening and which is configured so as to raise and close the lower opening once the liquid solution in the container reaches a predetermined level, characterized in that the closure float comprises an upper surface which includes a closure element which is suitable for closing the lower opening said the closure element having a convex shape, preferably a hemispherical shape, and facing the lower opening , said the closure element being positioned in a recess , which is preferably cylindrical and which is formed in the upper surface of the closure float . • a container including an upper wall ; • a filler pipe which is positioned on the upper wall of the container and which is suitable for introducing the liquid solution, said filler pipe comprising a member with an elongate shape which extends about an axis (X); • a lower opening , from which the liquid solution being introduced passes into the container and which protrudes with respect to the upper wall towards the interior of the container ; • a closure float which is positioned in the container and which is connected to the lower opening and which is configured so as to raise and close the lower opening once the liquid solution in the container reaches a predetermined level, characterized in that the closure float comprises an upper surface which includes a closure element which is suitable for closing the lower opening said the closure element having a convex shape, preferably a hemispherical shape, and facing the lower opening , said the closure element being positioned in a recess , which is preferably cylindrical and which is formed in the upper surface of the closure float .
Method for measuring and displaying the audio signal / noise ratio in a system for radio frequency broadcasting of audio and audio / video signals, said system comprising sections for the acquisition of an audio signal, for the analog and / or digital processing of said signal, of emission of the same in the antenna and of reception and decoding of said signal; said method being characterized in that it comprises the following operating steps: taking the audio signal processed by said system , in a final processing stage of the same for diffusion, in a frequency band ΔF belonging to the overall audio band of the system and for a predefined measurement time period T1, subjecting said audio signal taken to a Fast Fourier Transform, FFT, operation, to obtain, instant by instant and for said measurement time period T1, a power spectrum of said signal for the entire aforementioned frequency band ΔF considered; for each frequency F belonging to said frequency band ΔF and for the entire aforementioned measurement time T1, detect and store the maximum, PMax, and minimum, PMin, power values relating to each frequency, to obtain corresponding sequences of maximum power, CMax, and minimum power, CMin, respectively of said audio signal; for each said frequency F, obtaining the audio signal / noise ratio, S/N, of said signal as a function of the corresponding values of said sequences CMax and CMin; said measurement time period T1 being such as to allow a substantial stabilization of said sequences CMax and CMin.
A method for prompting a remaining service life of a cooking device, comprising: obtaining identification information of the cooking device, and determining a coating type of the cooking device according to the identification information; determining a total service life of the cooking device according to the coating type, obtaining a history life loss of the cooking device, and determining a difference between the total service life and the history life loss to obtain a current remaining service life; obtaining information of a cooking operation information to be performed by the cooking device, wherein the cooking operation information includes operation information selected on the cooking device, among cooking rice, cooking curry rice, stewing chicken soup and stewing ribs; determining a life loss of the cooking device based on the information of the cooking operation; calculating a difference between the current remaining service life and the life loss to obtain the remaining service life of the cooking device; outputting a prompt message when the remaining service life is less than or equal to a preset threshold. obtaining identification information of the cooking device, and determining a coating type of the cooking device according to the identification information; determining a total service life of the cooking device according to the coating type, obtaining a history life loss of the cooking device, and determining a difference between the total service life and the history life loss to obtain a current remaining service life; obtaining information of a cooking operation information to be performed by the cooking device, wherein the cooking operation information includes operation information selected on the cooking device, among cooking rice, cooking curry rice, stewing chicken soup and stewing ribs; determining a life loss of the cooking device based on the information of the cooking operation; calculating a difference between the current remaining service life and the life loss to obtain the remaining service life of the cooking device; outputting a prompt message when the remaining service life is less than or equal to a preset threshold.
A mixture suitable as artificial soil, characterized in that it comprises: a) 30-90% w/w of sludge resulting from agglomerated artificial stone processing; b) 5-45% w/w of gravel of particles with an average particle size between 1 and 70 mm; c) 2-45% w/w of organic matter; and d) 0.5-10% w/w of a cation exchanger, wherein w/w refers to the dry weight of each component with respect to the total dry weight sum of a), b), c) and d). a) 30-90% w/w of sludge resulting from agglomerated artificial stone processing; b) 5-45% w/w of gravel of particles with an average particle size between 1 and 70 mm; c) 2-45% w/w of organic matter; and d) 0.5-10% w/w of a cation exchanger,
Filter material for manufacturing a nicotine delivery product, wherein the filter material is hydroentangled and contains at least 50% and at most 100% cellulose fibers, each with respect to the mass of the filter material, wherein the filter material has a basis weight of at least 25 g/m 2 and at most 60 g/m 2 , and wherein the filter material has a structure that is characterized in that it provides the filter material with a transparency which, measured in accordance with DIN 53147:1993-01, is at least 45% and at most 70%.
A method for identifying circulating melanoma cells (CMCs) in a biological sample comprising: (a) contacting a biological sample of non-enriched blood with one or more detectable agents, wherein at least one of said one or more detectable agents is specific for a biomarker of CMCs, wherein the non-enriched sample is a sample not enriched for any specific population or subpopulation of nucleated cells; (b) determining the presence or absence of said one or more detectable agents in or on nucleated cells in the sample; and (c) assessing the morphology of the nucleated cells having said one or more detectable agents, wherein the CMCs are identified based on a combination of the presence or absence of said one or more detectable agents and morphological characteristics of the nucleated cells. (a) contacting a biological sample of non-enriched blood with one or more detectable agents, wherein at least one of said one or more detectable agents is specific for a biomarker of CMCs, wherein the non-enriched sample is a sample not enriched for any specific population or subpopulation of nucleated cells; (b) determining the presence or absence of said one or more detectable agents in or on nucleated cells in the sample; and (c) assessing the morphology of the nucleated cells having said one or more detectable agents,