mhurhangee/patent-ind-claim-en huggingface dataset:
An indoor unit for an air conditioner, comprising: a body provided with an air outlet ; an outer air deflector provided at the air outlet, and used to open and close the air outlet; an inner air deflector provided at the air outlet, wherein the inner air deflector is located on an inner side of the outer air deflector such that the inner air deflector is located within the indoor unit when the outer air deflector closes the air outlet, and the inner air deflector is formed with a plurality of vent holes penetrating the inner air deflector in a thickness direction, characterized in that : a total area of the plurality of vent holes being not smaller than 50% of a total area of the inner air deflector, and wherein each vent hole comprises a first hole section and a second hole section successively connected along an air outlet direction, and an outlet size of the first hole section is bigger than an inlet size of the second hole section to form a parting surface at a connection of the first hole section and the second hole section . a body provided with an air outlet ; an outer air deflector provided at the air outlet, and used to open and close the air outlet; an inner air deflector provided at the air outlet, wherein the inner air deflector is located on an inner side of the outer air deflector such that the inner air deflector is located within the indoor unit when the outer air deflector closes the air outlet, and the inner air deflector is formed with a plurality of vent holes penetrating the inner air deflector in a thickness direction, characterized in that : a total area of the plurality of vent holes being not smaller than 50% of a total area of the inner air deflector, and wherein each vent hole comprises a first hole section and a second hole section successively connected along an air outlet direction, and an outlet size of the first hole section is bigger than an inlet size of the second hole section to form a parting surface at a connection of the first hole section and the second hole section . a total area of the plurality of vent holes being not smaller than 50% of a total area of the inner air deflector, and wherein each vent hole comprises a first hole section and a second hole section successively connected along an air outlet direction, and an outlet size of the first hole section is bigger than an inlet size of the second hole section to form a parting surface at a connection of the first hole section and the second hole section .
Safety fitting , comprising a housing and a housing cover , which together define a cavity or interior space, comprising a backflow preventer which is arranged in the cavity or interior space and which is intended to interrupt a connection for a liquid between a first zone of the safety fitting and a second zone of the safety fitting , comprising a discharge valve which is arranged in the cavity or interior space and which is intended to empty the second zone of the safety fitting of the liquid, comprising an output coupling for connecting the safety fitting to an output-side removal device for drinking water, characterized by an input coupling which has a first coupling half that is fixedly mounted on the housing and a second coupling half that is rotatable in relation to the first coupling half and that is intended to connect the safety fitting to an input-side supply device for drinking water, wherein projections are formed on the second coupling half , said projections being able to be introduced into corresponding recesses of a counterpart coupling of the input-side supply device in order to mount, by subsequent rotation of the second coupling half , the safety fitting on the counterpart coupling of the input-side supply device in a bayonet-like manner by way of the input coupling thereof, a first actuating lever which is fixedly mounted on the rotatable second coupling half of the input coupling and which is intended to rotate the second coupling half of the input coupling in relation to the first coupling half of the input coupling and in relation to the housing . comprising a housing and a housing cover , which together define a cavity or interior space, comprising a backflow preventer which is arranged in the cavity or interior space and which is intended to interrupt a connection for a liquid between a first zone of the safety fitting and a second zone of the safety fitting , comprising a discharge valve which is arranged in the cavity or interior space and which is intended to empty the second zone of the safety fitting of the liquid, comprising an output coupling for connecting the safety fitting to an output-side removal device for drinking water, characterized by an input coupling which has a first coupling half that is fixedly mounted on the housing and a second coupling half that is rotatable in relation to the first coupling half and that is intended to connect the safety fitting to an input-side supply device for drinking water, wherein projections are formed on the second coupling half , said projections being able to be introduced into corresponding recesses of a counterpart coupling of the input-side supply device in order to mount, by subsequent rotation of the second coupling half , the safety fitting on the counterpart coupling of the input-side supply device in a bayonet-like manner by way of the input coupling thereof, a first actuating lever which is fixedly mounted on the rotatable second coupling half of the input coupling and which is intended to rotate the second coupling half of the input coupling in relation to the first coupling half of the input coupling and in relation to the housing .
A method for reporting user equipment, UE, capability information performed by the UE, wherein the method comprises: generating a data packet comprising the UE capability information in a Radio Resource Control, RRC, layer (S301); determining that the size of the data packet of the UE capability information exceeds a maximum tolerance that can be processed by a Packet Data Convergence Protocol, PDCP, layer of the UE (S302); splitting the data packet of the UE capability information into at least two split data packets in the RRC layer, wherein each split data packet of the at least two split data packets does not exceed the maximum tolerance that can be processed by the PDCP layer (S303); and reporting the at least two split data packets to a network side device using separate RRC messages (S304), wherein each RRC message comprises indication information, and the indication information is used to indicate an order of currently reported split data packet in all of the at least two split data packets; wherein the indication information is further used to indicate one of the following content: the UE has remaining split data packet, the UE has no remaining split data packet. generating a data packet comprising the UE capability information in a Radio Resource Control, RRC, layer (S301); determining that the size of the data packet of the UE capability information exceeds a maximum tolerance that can be processed by a Packet Data Convergence Protocol, PDCP, layer of the UE (S302); splitting the data packet of the UE capability information into at least two split data packets in the RRC layer, wherein each split data packet of the at least two split data packets does not exceed the maximum tolerance that can be processed by the PDCP layer (S303); and reporting the at least two split data packets to a network side device using separate RRC messages (S304), wherein each RRC message comprises indication information, and the indication information is used to indicate an order of currently reported split data packet in all of the at least two split data packets; wherein the indication information is further used to indicate one of the following content: the UE has remaining split data packet, the UE has no remaining split data packet.
A method of removing inert gases, such as the noble gases helium and argon, and methane, dissolved in liquid ammonia, characterized in that the liquid ammonia together with the gases dissolved therein is first evaporated in at least one first method step, then compressed in at least one second method step, and subsequently condensed further in at least one third method step.
A system for treating tissue, the system comprising: - an introducer assembly comprising a cannula , the cannula defining a lumen; - a medical instrument for accessing tissue at a treatment site through the lumen of the cannula, the medical instrument defining one or more indicia, each indicia for defining a probe ablation zone; and - one or more probes, each probe corresponding to a single indicia of the medical instrument, each probe operable to ablate tissue within a respective probe ablation zone; wherein the medical instrument is a bone drill , and wherein the medical instrument defines a marking located so as to indicate that a distal end of the medical instrument is aligned with a distal end of the cannula when the medical instrument is inserted through the cannula such that the marking is aligned with a cooperating feature of the cannula. - an introducer assembly comprising a cannula , the cannula defining a lumen; - a medical instrument for accessing tissue at a treatment site through the lumen of the cannula, the medical instrument defining one or more indicia, each indicia for defining a probe ablation zone; and - one or more probes, each probe corresponding to a single indicia of the medical instrument, each probe operable to ablate tissue within a respective probe ablation zone; wherein the medical instrument is a bone drill , and wherein the medical instrument defines a marking located so as to indicate that a distal end of the medical instrument is aligned with a distal end of the cannula when the medical instrument is inserted through the cannula such that the marking is aligned with a cooperating feature of the cannula.
Flat electrical component, comprising: a first sheet metal panel ; a second sheet metal panel ; and an electrically conductive adhesive layer disposed between facing surfaces of the first sheet metal panel and the second sheet metal panel , wherein the first sheet metal panel forms a first electrode of the flat electrical component, the second sheet metal panel forms a second electrode of the flat electrical component, and a current flow occurs from the first sheet metal panel through the electrically conductive adhesive layer to the second sheet metal panel perpendicular to the adhesive layer plane, characterized in that the first sheet metal panel is made of a steel material, the second sheet metal panel is made of a steel material or of an aluminum material and the electrically conductive adhesive layer is constructed on the basis of a baking varnish. a first sheet metal panel ; a second sheet metal panel ; and an electrically conductive adhesive layer disposed between facing surfaces of the first sheet metal panel and the second sheet metal panel , wherein the first sheet metal panel forms a first electrode of the flat electrical component, the second sheet metal panel forms a second electrode of the flat electrical component, and a current flow occurs from the first sheet metal panel through the electrically conductive adhesive layer to the second sheet metal panel perpendicular to the adhesive layer plane, characterized in that the first sheet metal panel is made of a steel material, the second sheet metal panel is made of a steel material or of an aluminum material and the electrically conductive adhesive layer is constructed on the basis of a baking varnish.
A serial arrangement of filter media comprising n layers, wherein n is at least two, each of the n layers is an asymmetrical filter medium with an asymmetry factor of at least 1.5, the n layers have an overall asymmetry factor of at least 10, and the pore size of the n layers continuously decreases substantially in the thickness direction of the serial arrangement, wherein the arrangement is an assembly of n layers of asymmetrical filter media, which are loosely stacked on top of one another and are embedded in a filter housing in the edge regions of the layers. n is at least two, each of the n layers is an asymmetrical filter medium with an asymmetry factor of at least 1.5, the n layers have an overall asymmetry factor of at least 10, and the pore size of the n layers continuously decreases substantially in the thickness direction of the serial arrangement, wherein the arrangement is an assembly of n layers of asymmetrical filter media, which are loosely stacked on top of one another and are embedded in a filter housing in the edge regions of the layers.
An anaerobic waste processing system for digesting high-solids waste material, the anaerobic waste processing system comprising: a digester enclosure comprising a generally circular outer wall defining at least a portion of respective outer perimeters of a digester , a mixing chamber and a clarifier chamber enclosed by said digester enclosure , wherein: the digester comprises a first passageway in which the waste material flows in a first direction, a second passageway in which the waste material flows in a second direction generally opposite the first direction, the first passageway being separated from the second passageway by a first divider , and a third passageway in which the waste material flows in a direction substantially similar to the first direction of the first passageway , the second passageway being separated from the third passageway by a second divider , whereby the digester defines at least one flow path for the waste material that is generally S-shaped, and the digester further comprises a heating device comprising one or more heating pipes for heating the waste material, the heating pipes being arranged along one or both dividers in the first passageway , the second passageway , the third passageway or a combination thereof, to induce the waste material to move in a corkscrew-like fashion through at least one of the first passageway and the third passageway ; the mixing chamber is positioned prior to the first passageway and is configured to preheat the waste material prior to the waste material entering the first passageway ; and the clarifier chamber is positioned after the third passageway and is configured to receive the waste material from the third passageway and to allow the waste material to settle into liquid and solid components. the mixing chamber is positioned prior to the first passageway and is configured to preheat the waste material prior to the waste material entering the first passageway ; and the clarifier chamber is positioned after the third passageway and is configured to receive the waste material from the third passageway and to allow the waste material to settle into liquid and solid components.
A right angled coaxial electrical connector , comprising: a housing having a first opening and a second opening , wherein the first opening is oriented at substantially a ninety degree angle to the second opening and wherein the housing defines an internal cavity extending from the first opening to the second opening ; a first terminal disposed within the internal cavity and configured to be connected to a center conductor of a coaxial cable inserted in the first opening ; a center contact disposed within the internal cavity , accessible through the second opening , and defining a corresponding second terminal configured to receive a tip of the first terminal therethrough; a conductive shield surrounding the center contact and disposed within the internal cavity ; and an insulator intermediate the shield and the center contact , wherein the insulator defines a portal extending from the second opening to the location of the tip of the first terminal when fully seated within the second terminal . a housing having a first opening and a second opening , wherein the first opening is oriented at substantially a ninety degree angle to the second opening and wherein the housing defines an internal cavity extending from the first opening to the second opening ; a first terminal disposed within the internal cavity and configured to be connected to a center conductor of a coaxial cable inserted in the first opening ; a center contact disposed within the internal cavity , accessible through the second opening , and defining a corresponding second terminal configured to receive a tip of the first terminal therethrough; a conductive shield surrounding the center contact and disposed within the internal cavity ; and an insulator intermediate the shield and the center contact , wherein the insulator defines a portal extending from the second opening to the location of the tip of the first terminal when fully seated within the second terminal .
Self-propelled vehicle for handling glass-sheet supporting racks and which comprises a front rack-supporting chassis and a rear drive unit , both provided with ground-resting wheels ; the rack-supporting chassis comprising a substantially U-shaped rigid oblong frame which is provided with two longitudinal beams that extend substantially horizontal and parallel to the longitudinal axis of the vehicle (L), in substantially specular position on opposite sides of the vertical midplane of the vehicle (P), so as to form a rectilinear groove or slot adapted to be engaged by a glass-sheet supporting rack ; the rear drive unit being connected to the rack-supporting chassis by mechanical coupling means allowing the rack-supporting chassis to move vertically with respect to the drive unit ; the self-propelled vehicle being characterised in that each longitudinal beam is divided into a front rectilinear segment and a rear rectilinear segment , which are coupled in axially sliding manner so as to vary the total axial length (f) of the longitudinal beam between a given maximum value and a given minimum value.
A method, comprising: receiving, by a device , spectroscopic data associated with a dynamic process; generating, by the device , a first principal component analysis, PCA, model based on a first block of spectra from the spectroscopic data; projecting, by the device , a second block of spectra from the spectroscopic data to the first PCA model generated based on the first block of spectra; determining, by the device , a value of a metric associated with the second block based on projecting the second block of spectra to the first PCA model; determining, by the device, that the dynamic process has not reached an end point based on the value of the metric associated with the second block; characterised in that the method further comprises: generating a second PCA model based on a third block of spectra from the spectroscopic data; projecting a fourth block of spectra from the spectroscopic data to the second PCA model generated based on the third block of spectra; determining a value of the metric associated with the fourth block based on projecting the fourth block of spectra to the second PCA model; and determining whether the dynamic process has reached an end point based on the value of the metric associated with the fourth block. receiving, by a device , spectroscopic data associated with a dynamic process; generating, by the device , a first principal component analysis, PCA, model based on a first block of spectra from the spectroscopic data; projecting, by the device , a second block of spectra from the spectroscopic data to the first PCA model generated based on the first block of spectra; determining, by the device , a value of a metric associated with the second block based on projecting the second block of spectra to the first PCA model; determining, by the device, that the dynamic process has not reached an end point based on the value of the metric associated with the second block; characterised in that the method further comprises: generating a second PCA model based on a third block of spectra from the spectroscopic data; projecting a fourth block of spectra from the spectroscopic data to the second PCA model generated based on the third block of spectra; determining a value of the metric associated with the fourth block based on projecting the fourth block of spectra to the second PCA model; and determining whether the dynamic process has reached an end point based on the value of the metric associated with the fourth block. generating a second PCA model based on a third block of spectra from the spectroscopic data; projecting a fourth block of spectra from the spectroscopic data to the second PCA model generated based on the third block of spectra; determining a value of the metric associated with the fourth block based on projecting the fourth block of spectra to the second PCA model; and determining whether the dynamic process has reached an end point based on the value of the metric associated with the fourth block.
Use of a polymer having a pendant oxazoline group as a carbon nanotube-dispersing agent.
Sensor arrangement for determining at least one parameter of a fluid medium flowing through a duct structure , in particular an intake air mass flow of an internal combustion engine, wherein the sensor arrangement has a sensor housing , in particular a plug-in sensor which is inserted or can be inserted into a flow pipe and in which the duct structure is formed, wherein the sensor housing has a housing body and a cover , wherein the duct structure has a main duct and a measuring duct , wherein at least one sensor chip for determining the parameter of the fluid medium is arranged in the measuring duct , wherein the sensor housing has an inlet into the duct structure , which inlet faces counter to a main flow direction of the fluid medium, at least one main duct outlet out of the main duct and at least one measuring duct outlet out of the measuring duct , wherein the main duct outlet is arranged on an end side or a side , which is downstream with respect to the main flow direction , of the cover , wherein the measuring duct outlet is arranged on the same side of the cover as the main duct outlet , characterized in that the measuring duct outlet projects further than the main duct outlet from the cover .
A method for carrying out a hydrothermal carbonization reaction, in which biomass is supplied to a reaction tank, and reaction conditions with regard to pressure and temperature necessary for carrying out a hydrothermal carbonization reaction are provided by introducing steam and are maintained for a reaction period, characterized in that during the reaction period, a slurry is formed from the introduced steam and the biomass, and is monitored with regard to the variation in its pH over time, wherein the reaction is terminated as soon as an exceedance of a maximum of this pH is determined.