mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for a non-aqueous secondary battery adhesive layer comprising: organic particles; and a water-soluble polymer, wherein the water-soluble polymer has a 1 mass% aqueous solution viscosity of at least 500 mPa·s and not more than 9,000 mPa·s, wherein the water-soluble polymer includes an ethylenically unsaturated carboxylic acid monomer unit in a proportion of at least 20 mass% and not more than 70 mass%; wherein the compounding ratio of the water-soluble polymer relative to 100 parts by mass of the organic particles is 5 parts by mass or less, viscosity η 0 of the composition for a non-aqueous secondary battery adhesive layer at a shear rate of 100 s -1 is at least 10 mPa·s and not more than 200 mPa·s, and a ratio of η 0 relative to viscosity η 1 of the composition for a non-aqueous secondary battery adhesive layer at a shear rate of 10,000 s -1 is at least 1.5 and not more than 5.0, wherein the 1 mass% aqueous solution viscosity of the water-soluble polymer, the viscosity η 0 of the composition and the viscosity η 1 of the composition are measured as described in the description. organic particles; and a water-soluble polymer, wherein the water-soluble polymer has a 1 mass% aqueous solution viscosity of at least 500 mPa·s and not more than 9,000 mPa·s, wherein the water-soluble polymer includes an ethylenically unsaturated carboxylic acid monomer unit in a proportion of at least 20 mass% and not more than 70 mass%; wherein the compounding ratio of the water-soluble polymer relative to 100 parts by mass of the organic particles is 5 parts by mass or less, viscosity η 0 of the composition for a non-aqueous secondary battery adhesive layer at a shear rate of 100 s -1 is at least 10 mPa·s and not more than 200 mPa·s, and a ratio of η 0 relative to viscosity η 1 of the composition for a non-aqueous secondary battery adhesive layer at a shear rate of 10,000 s -1 is at least 1.5 and not more than 5.0, wherein the 1 mass% aqueous solution viscosity of the water-soluble polymer, the viscosity η 0 of the composition and the viscosity η 1 of the composition are measured as described in the description.
A gas turbine blade comprising: a turbine blade provided in a turbine; and film cooling elements provided to realize film cooling of the turbine blade , each comprising a cooling channel for cooling of the turbine blade , an outlet through which cooling air is discharged, and a plurality of ribs , wherein the outlet extends from an end of the cooling channel to an outer surface of the turbine blade and has a width increased from the end of the cooling channel to the outer surface of the turbine blade , and the ribs face each other on inner walls of the outlet and wherein the outlet has a divergence angle (α) characterized in that the outlet expands elliptically in a transverse direction thereof from the end of the cooling channel . a turbine blade provided in a turbine; and film cooling elements provided to realize film cooling of the turbine blade , each comprising a cooling channel for cooling of the turbine blade , an outlet through which cooling air is discharged, and a plurality of ribs , wherein the outlet extends from an end of the cooling channel to an outer surface of the turbine blade and has a width increased from the end of the cooling channel to the outer surface of the turbine blade , and the ribs face each other on inner walls of the outlet and wherein the outlet has a divergence angle (α) characterized in that the outlet expands elliptically in a transverse direction thereof from the end of the cooling channel .
A transceiver suitable to frequency duplex division communication comprising a transmitter , wherein the transmitter comprises a power amplifier ; a receiver ; an auxiliary power amplifier which is arranged to provide a controllable phase shift and gain output; a first filter arranged at an output of the power amplifier arranged to attenuate frequencies at a receiving frequency of the receiver ; a second filter at an output of the auxiliary power amplifier arranged to attenuate frequencies at a receiving frequency of the receiver ; a signal transmission arrangement arranged to transmit signals provided from the transmitter through its power amplifier to a radio frequency, RF, connecting point via the first filter , receive signals from the RF connecting point and provide the signals to the receiver via an impedance , and provide signals from the auxiliary amplifier towards an input of the receiver via the second filter ; and a controller , wherein the controller is arranged to control the auxiliary power amplifier output to provide a signal that has a phase and amplitude in relation to the output of the power amplifier of the transmitter such that the transmitter contribution to the signal at the input of the receiver is suppressed. transmit signals provided from the transmitter through its power amplifier to a radio frequency, RF, connecting point via the first filter , receive signals from the RF connecting point and provide the signals to the receiver via an impedance , and provide signals from the auxiliary amplifier towards an input of the receiver via the second filter ; and
An optical scanning device comprising: a base ; a cantilevered beam extending from the base , the cantilevered beam including a proximal end attached to the base and a distal end; characterised in that the optical scanning device further comprises: at least one optical waveguide positioned on the base and on the cantilevered beam , and extending from the base along the cantilevered beam from the proximate end to the distal end; a plurality of heaters disposed on the cantilevered beam , wherein actuating the plurality of heaters induces a thermal expansion of a plurality of regions in the cantilevered beam , causing a deflection of the cantilevered beam and of the optical waveguide ; and a first capacitive sensing electrode disposed on the cantilevered beam and a second capacitive sensing electrode disposed adjacent to the cantilevered beam. a base ; a cantilevered beam extending from the base , the cantilevered beam including a proximal end attached to the base and a distal end; characterised in that the optical scanning device further comprises: at least one optical waveguide positioned on the base and on the cantilevered beam , and extending from the base along the cantilevered beam from the proximate end to the distal end; a plurality of heaters disposed on the cantilevered beam , wherein actuating the plurality of heaters induces a thermal expansion of a plurality of regions in the cantilevered beam , causing a deflection of the cantilevered beam and of the optical waveguide ; and a first capacitive sensing electrode disposed on the cantilevered beam and a second capacitive sensing electrode disposed adjacent to the cantilevered beam. at least one optical waveguide positioned on the base and on the cantilevered beam , and extending from the base along the cantilevered beam from the proximate end to the distal end; a plurality of heaters disposed on the cantilevered beam , wherein actuating the plurality of heaters induces a thermal expansion of a plurality of regions in the cantilevered beam , causing a deflection of the cantilevered beam and of the optical waveguide ; and a first capacitive sensing electrode disposed on the cantilevered beam and a second capacitive sensing electrode disposed adjacent to the cantilevered beam.
An inhaler article comprising: a body extending along a longitudinal axis (L A ) from a mouthpiece end to a distal end ; an endpiece element at the distal end ; a capsule cavity defined within the body and extending along the longitudinal axis (L A ) a cavity length; an air inlet region between the endpiece element and the capsule cavity , the air inlet region having an air inlet and an air passageway extending from the air inlet to the capsule cavity ; a composite porous support element defining a downstream end of the capsule cavity , the composite porous support element formed of a first porous material concentrically disposed about a second porous material, the composite porous support element extending along a longitudinal axis a length, the first porous material having a first resistance to draw and the second porous material having a second resistance to draw, the first resistance to draw being different than the second resistance to draw, the second porous material forms a central core portion and the first porous material forms an outer periphery layer circumscribed about the central core portion, the central core portion forms a cylinder, and the outer periphery layer extends the length of the central core portion; and a mouthpiece air channel extending from the capsule cavity, through the composite porous element to the mouthpiece end . a body extending along a longitudinal axis (L A ) from a mouthpiece end to a distal end ; an endpiece element at the distal end ; a capsule cavity defined within the body and extending along the longitudinal axis (L A ) a cavity length; an air inlet region between the endpiece element and the capsule cavity , the air inlet region having an air inlet and an air passageway extending from the air inlet to the capsule cavity ; a composite porous support element defining a downstream end of the capsule cavity , the composite porous support element formed of a first porous material concentrically disposed about a second porous material, the composite porous support element extending along a longitudinal axis a length, the first porous material having a first resistance to draw and the second porous material having a second resistance to draw, the first resistance to draw being different than the second resistance to draw, the second porous material forms a central core portion and the first porous material forms an outer periphery layer circumscribed about the central core portion, the central core portion forms a cylinder, and the outer periphery layer extends the length of the central core portion; and a mouthpiece air channel extending from the capsule cavity, through the composite porous element to the mouthpiece end .
An imaging radar system comprising an antenna system (ANT) having a plurality of sectors (TX, RX1, RX2, RX3, RX4) each composed of a plurality of activatable radiating elements, the radar system comprising at least one transmission channel and at least one reception channel capable of each controlling a sector, each transmission channel being configured to control a sector (TX) by means of a signal burst having a predetermined recurrence frequency and characterised in that the phase at the origin of each recurrence follows a predefined phase coding law, each reception channel being configured to apply said phase coding law to the active radiating elements (ET1_RX1, ET2_RX1) of a sector (RX1), the phase coding laws applied to the different active radiating elements (ET1_TX, ET2_TX, ET1_RX1, ET2_RX1) of a set composed of a sector controlled by a transmission channel and of a sector controlled by a reception channel, being mutually orthogonal, the system further comprising a computer (CALC) comprising a virtual channel identification module (ID) configured to filter in reception each virtual channel corresponding to the combination of a radiating element (ET1_TX, ET2_TX) of a sector controlled by a transmission channel and of a radiating element (ET1_RX1, ET2_RX1) of a sector controlled by a reception channel.
A razor cartridge comprising: a blade housing ; and a plurality of blades (10a-e) comprising a first blade and a second blade, wherein a thickness of an edge portion of the first blade is less than a thickness of an edge portion of the second blade, and wherein a first span for the first blade is less than a second span for the second blade. a blade housing ; and a plurality of blades (10a-e) comprising a first blade and a second blade, wherein a thickness of an edge portion of the first blade is less than a thickness of an edge portion of the second blade, and wherein a first span for the first blade is less than a second span for the second blade.
A holder for securing an item to the holder , the holder comprising: - a housing , - the housing having a face configured for attaching to a side of the item , - a suction port arranged in the face , - at least one vacuum pump connected to the suction port for creating at least a partial vacuum between the face and the side of the item for securing the item to the holder by suction, - a drive motor operably coupled the vacuum pump , - a manual control element coupled to a controller , - a bleed valve having at least a closed position and an open position, - the bleed valve fluidically connecting the suction port to atmosphere in the open position, characterized by - the controller being configured: to activate the drive motor and to move the bleed valve to the closed position in response to an activation signal from the manual control element , and to deactivate the drive motor and to move the bleed valve to the open position in response to a deactivation signal from the manual control element . - a housing , - the housing having a face configured for attaching to a side of the item , - a suction port arranged in the face , - at least one vacuum pump connected to the suction port for creating at least a partial vacuum between the face and the side of the item for securing the item to the holder by suction, - a drive motor operably coupled the vacuum pump , - a manual control element coupled to a controller , - a bleed valve having at least a closed position and an open position, - the bleed valve fluidically connecting the suction port to atmosphere in the open position, characterized by - the controller being configured: to activate the drive motor and to move the bleed valve to the closed position in response to an activation signal from the manual control element , and to deactivate the drive motor and to move the bleed valve to the open position in response to a deactivation signal from the manual control element . to activate the drive motor and to move the bleed valve to the closed position in response to an activation signal from the manual control element , and to deactivate the drive motor and to move the bleed valve to the open position in response to a deactivation signal from the manual control element .
An exhaust baffle component for a turbine starter comprising: a plurality of frames arranged with one another as a single component, at least one of the plurality of frames including an attachment flange extending therefrom and defining a receiving aperture , each frame of the plurality of frames including one or more louvers stacked relative to one another and spaced from one another to define an air opening therebetween, wherein the attachment flange extends from the frame to substantially align the receiving aperture with a starter aperture of a starter component to facilitate securement of the attachment flange to the starter component when in use; characterized in that the exhaust baffle component also includes an extension of a flexible material extending from a lower portion of each frame of the plurality of frames, wherein the extension defines one or more openings sized to facilitate a snap fit to a feature of a housing of the starter component. a plurality of frames arranged with one another as a single component, at least one of the plurality of frames including an attachment flange extending therefrom and defining a receiving aperture , each frame of the plurality of frames including one or more louvers stacked relative to one another and spaced from one another to define an air opening therebetween, wherein the attachment flange extends from the frame to substantially align the receiving aperture with a starter aperture of a starter component to facilitate securement of the attachment flange to the starter component when in use; characterized in that the exhaust baffle component also includes an extension of a flexible material extending from a lower portion of each frame of the plurality of frames, wherein the extension defines one or more openings sized to facilitate a snap fit to a feature of a housing of the starter component.
An in vitro method of detecting the presence of different target analytes in a sample, the method comprising: providing the sample and a plurality of reporter particles having ω different colours to a substrate, the substrate having α assigned spatial regions; and determining, on the substrate, the presence of a colour arising from the reporter particles in each of α assigned spatial regions on the substrate, wherein each of the assigned spatial regions on the substrate is configured to immobilize a target analyte or a group of target analytes that is different from the other assigned spatial regions, wherein reporter particles of each different colour are configured to couple to a target analyte that is different from that of the reporter particles of the other different colours, and wherein α is an integer that is at least two and ω is an integer that is at least three, wherein the reporter particles are configured to give rise to a secondary colour when reporter particles of two or more different colours are colocalized in the same spatial region, wherein the secondary colour resulting from the colocalization of the reporter particles of two or more different colours from the ω different colours is distinct from another secondary colour resulting from the colocalization of reporter particles of other combinations of colours from the ω different colours, wherein the presence of a secondary colour arising from the colocalization of reporter particles in an assigned spatial region is indicative of the presence of at least two different target analytes in the sample. providing the sample and a plurality of reporter particles having ω different colours to a substrate, the substrate having α assigned spatial regions; and determining, on the substrate, the presence of a colour arising from the reporter particles in each of α assigned spatial regions on the substrate, wherein each of the assigned spatial regions on the substrate is configured to immobilize a target analyte or a group of target analytes that is different from the other assigned spatial regions, wherein reporter particles of each different colour are configured to couple to a target analyte that is different from that of the reporter particles of the other different colours, and wherein α is an integer that is at least two and ω is an integer that is at least three, wherein the reporter particles are configured to give rise to a secondary colour when reporter particles of two or more different colours are colocalized in the same spatial region, wherein the secondary colour resulting from the colocalization of the reporter particles of two or more different colours from the ω different colours is distinct from another secondary colour resulting from the colocalization of reporter particles of other combinations of colours from the ω different colours, wherein the presence of a secondary colour arising from the colocalization of reporter particles in an assigned spatial region is indicative of the presence of at least two different target analytes in the sample.
A selector comprising: a body ; an inlet located on one side of the body ; an outlet located on the other side of the body ; a circular upper passage , one side of which communicates with the inlet and which is located on an upper side of the body ; a circular lower passage , one side of which communicates with the outlet and which is disposed in parallel to the lower side of the upper passage ; a plurality of tubes disposed in parallel along circumferences of the upper passage and the lower passage , having different inner diameters, and the lower sides of which communicate with the lower passage ; and a first sealing member located to be rotatable to cover the upper side of the upper passage and the upper sides of the plurality of tubes , on an upper side of the body and having a communication recess disposed to or not to overlap any one of the upper side of the upper passage and the upper sides of the plurality of tubes , on a lower surface thereof, wherein the upper passage and the lower passage selectively communicate with the tubes according to a location of the communication recess through rotation of the first sealing member , wherein the inlet and the tubes do not communicate with each other or the inlet and the tubes selectively communicate with each other, according to a change of the location of the communication recess due to rotation of the first sealing member . a body ; an inlet located on one side of the body ; an outlet located on the other side of the body ; a circular upper passage , one side of which communicates with the inlet and which is located on an upper side of the body ; a circular lower passage , one side of which communicates with the outlet and which is disposed in parallel to the lower side of the upper passage ; a plurality of tubes disposed in parallel along circumferences of the upper passage and the lower passage , having different inner diameters, and the lower sides of which communicate with the lower passage ; and a first sealing member located to be rotatable to cover the upper side of the upper passage and the upper sides of the plurality of tubes , on an upper side of the body and having a communication recess disposed to or not to overlap any one of the upper side of the upper passage and the upper sides of the plurality of tubes , on a lower surface thereof, wherein the upper passage and the lower passage selectively communicate with the tubes according to a location of the communication recess through rotation of the first sealing member , wherein the inlet and the tubes do not communicate with each other or the inlet and the tubes selectively communicate with each other, according to a change of the location of the communication recess due to rotation of the first sealing member .
Electric switching device , comprising at least two conductor elements which can be placed at a distance from one another and contacted using a moving mechanism , and a housing which defines a switching chamber , is made of an insulator and at least partially surrounds the conductor elements , wherein at least one face of the housing has a resistive coating which is made of a matrix material filled with a filler, wherein the sheet resistance of the coating is between 10 8 and 10 12 ohm at operating field strength, and it is conductively connected to the conductor elements , wherein the sheet resistance is varied along the direction of extent of the conductor elements , characterized in that the variation of the sheet resistance along the direction of extent is achieved by using different fillers and/or by varying the concentration of the single filler.
An adsorbent particle comprising iron oxyhydroxide as a main component, wherein 90% or more of the volume of the particle is constituted of a granular crystal having a crystal grain size of 20 nm or less or a columnar crystal having a width of 10 nm or less and a length of 30 nm or less and the particle has a BET specific surface area of 250 m 2 /g or more, wherein the granular crystal has a longitudinal length/latitudinal length ratio of 3 or less.
Device for cultivating plants consisting of at least one foldable planting surface which can be arranged in the interior of a planting container , wherein the planting surface has several folds parallel to one another and a plurality of openings arranged at a distance from one another, into which the plants can be inserted, are present in the planting surface , characterised in that respectively two parallel folds form a planting row and the openings for the plants are between the two folds and in that the foldable planting surface can be pulled out in a horizontal direction , wherein the planting surface is raised by pulling apart and a distance between the planting surface and a container base of the planting container is increased.