mhurhangee/patent-ind-claim-en huggingface dataset:
A Waste-to-Energy plant comprising: an incineration chamber in which waste is combusted generating hot flue gas ; at least one economizer to heat feedwater using heat from the hot flue gas ; at least one evaporator to produce steam from the heated feedwater using heat from the hot flue gas ; at least one steam drum to receive the heated feedwater from the at least one economizer and serve as a supply for the heated feedwater , the at least one steam drum further to receive the steam from the at least one evaporator and serve as a supply for the steam ; and at least one superheater to receive the steam from the at least one steam drum and to further heat the steam to a superheated steam using heat from the hot flue gas ; characterised in that the incineration chamber comprises a first PCM-wall and a second PCM-wall each comprising a plurality of pipes and a layer of PCM provided between the pipes and the incineration chamber , the plurality of pipes in the first PCM-wall receiving the heated feedwater from the steam drum and producing additional steam in the plurality of pipes in the first PCM-wall using radiant heat from the incineration chamber , and the second PCM-wall additionally heating steam in the plurality of pipes of the second PCM-wall using radiant heat from the incineration chamber . an incineration chamber in which waste is combusted generating hot flue gas ; at least one economizer to heat feedwater using heat from the hot flue gas ; at least one evaporator to produce steam from the heated feedwater using heat from the hot flue gas ; at least one steam drum to receive the heated feedwater from the at least one economizer and serve as a supply for the heated feedwater , the at least one steam drum further to receive the steam from the at least one evaporator and serve as a supply for the steam ; and at least one superheater to receive the steam from the at least one steam drum and to further heat the steam to a superheated steam using heat from the hot flue gas ; characterised in that the incineration chamber comprises a first PCM-wall and a second PCM-wall each comprising a plurality of pipes and a layer of PCM provided between the pipes and the incineration chamber , the plurality of pipes in the first PCM-wall receiving the heated feedwater from the steam drum and producing additional steam in the plurality of pipes in the first PCM-wall using radiant heat from the incineration chamber , and the second PCM-wall additionally heating steam in the plurality of pipes of the second PCM-wall using radiant heat from the incineration chamber .
A Positive Expiratory Pressure (PEP) module comprising: a hollow device housing having a mouthpiece at a first end thereof and a cover at an opposite second end thereof, wherein a valve housing of a valve assembly defines a passageway for directing the airflow of the expiratory air from the mouthpiece towards the cover , the valve assembly configured to be disposed within the device housing between the mouthpiece and the cover , the valve assembly comprising a valve housing and a valve movably mounted on the valve housing, wherein the valve is movable relative to the valve housing between a first position that is substantially out of the airflow and a second position that is substantially in the airflow, wherein the valve oscillates repeatedly between the first position and the second position, the valve operable for producing oscillations in an airflow, characterized in that the valve is shaped as an "H" having lower legs and upper legs affixed to the valve housing, whereby the legs are triangular in shape and in opposing parallel position with a central horizontal ledge, whereby the valve is rotatably disposed on the valve housing such that the valve is operable for movement into and out of the airflow wherein the movement into and out of the airflow of the expiratory air is directed through the passageway defined by the valve housing and the flow of expiratory air over the surface of valve creates a lifting force which causes the valve to move from a first position towards a second position. a hollow device housing having a mouthpiece at a first end thereof and a cover at an opposite second end thereof, wherein a valve housing of a valve assembly defines a passageway for directing the airflow of the expiratory air from the mouthpiece towards the cover , the valve assembly configured to be disposed within the device housing between the mouthpiece and the cover , the valve assembly comprising a valve housing and a valve movably mounted on the valve housing, wherein the valve is movable relative to the valve housing between a first position that is substantially out of the airflow and a second position that is substantially in the airflow, wherein the valve oscillates repeatedly between the first position and the second position, the valve operable for producing oscillations in an airflow, characterized in that the valve is shaped as an "H" having lower legs and upper legs affixed to the valve housing, whereby the legs are triangular in shape and in opposing parallel position with a central horizontal ledge, whereby the valve is rotatably disposed on the valve housing such that the valve is operable for movement into and out of the airflow wherein the movement into and out of the airflow of the expiratory air is directed through the passageway defined by the valve housing and the flow of expiratory air over the surface of valve creates a lifting force which causes the valve to move from a first position towards a second position.
A superconducting coil arrangement comprising one or two axially stacked superconducting coils each provided with a tape-like superconducting wire (1, 11 - 19) wound around an axis, wherein the superconducting coil arrangement comprises: a release material layer (3, 31 - 34, 36 - 39) between layers of each of the wound superconducting wire (1, 11 - 19) which are adjacent in a radial direction and at both ends in an axial direction of the superconducting coil arrangement ; and a resin layer (4, 41 - 48) between layers of each of the wound superconducting wire (1, 11 - 19) which are adjacent in the radial direction and in a region other than a region where the release material layer (3, 31 - 34, 36 - 39) is formed. a release material layer (3, 31 - 34, 36 - 39) between layers of each of the wound superconducting wire (1, 11 - 19) which are adjacent in a radial direction and at both ends in an axial direction of the superconducting coil arrangement ; and a resin layer (4, 41 - 48) between layers of each of the wound superconducting wire (1, 11 - 19) which are adjacent in the radial direction and in a region other than a region where the release material layer (3, 31 - 34, 36 - 39) is formed.
Device with an x-ray source (RQ) having an x-ray screen unit (RBE) and a detector (D) for creating partial x-ray images (RBn-x,..., RBn,..., RBn+y), wherein the x-ray screen unit (RBE) having a first and/or second semi-transparent collimator (ERB, ZRB) can be actuated when partial x-ray images (RBn-x,..., RBn,..., RBn+y) of a panoramic x-ray image (RPA) are created such that when partial x-ray images (RBn-x,..., RBn,..., RBn+y) are created for a panoramic x-ray recording (RPA), the first and/or second semi-transparent collimator (ERB, ZRB) are moved into the screen opening of the x-ray screen unit (RBE) such that at least parts of the overlapping areas of partial x-ray images (RBn-x,..., RBn, ...,RBn+y) to be joined to one another can be created using a reduced x-ray dose, wherein the width of an overlapping area (ÜB) between two adjoining partial x-ray images (RBn-1, RBn; RBn, RBn+1) can be predetermined.
A device for generating sum-of-products , comprising: an array of variable resistance cells , the array including n columns of cells including strings of series connected cells and m rows of cells, wherein n and m are non-zero integers; m input drivers coupled to corresponding ones of the m rows of cells, the input drivers configured to selectively apply inputs X m to rows m; n column drivers configured to apply currents I n to corresponding ones of the n columns of cells; and voltage sensing circuits operatively coupled to the n columns of cells to sense the voltage representing the sum-of-products of the inputs X m by weight factors W mn , characterized in that each variable resistance cell comprises a programmable threshold transistor (12; 35) and a resistor (14; 36) connected in parallel, wherein the device for generating sum-of-products further comprises control and bias circuitry coupled to the array , including logic for programming the programmable threshold transistors in the array with thresholds corresponding to values of the weight factor W mn for the corresponding cell. an array of variable resistance cells , the array including n columns of cells including strings of series connected cells and m rows of cells, wherein n and m are non-zero integers; m input drivers coupled to corresponding ones of the m rows of cells, the input drivers configured to selectively apply inputs X m to rows m; n column drivers configured to apply currents I n to corresponding ones of the n columns of cells; and voltage sensing circuits operatively coupled to the n columns of cells to sense the voltage representing the sum-of-products of the inputs X m by weight factors W mn , characterized in that each variable resistance cell comprises a programmable threshold transistor (12; 35) and a resistor (14; 36) connected in parallel, wherein the device for generating sum-of-products further comprises control and bias circuitry coupled to the array , including logic for programming the programmable threshold transistors in the array with thresholds corresponding to values of the weight factor W mn for the corresponding cell.
Rechargeable non-aqueous electrochemical battery cell , comprising - a negative electrode having an electronically conductive substrate, and - a sulfur dioxide-containing electrolyte, and - a positive electrode having a porous structure, wherein the active material of the positive electrode is contained in the porous structure, and wherein the active material of the positive electrode is arranged in the vicinity of the electronically conductive substrate of the negative electrode, and wherein - at least part of the active metal resulting from the electrode reaction at the negative electrode penetrates into the pores of the positive electrode, and wherein the entire surface of the active material of the positive electrode is covered with a layer of metal dithionite, and the active material of the positive electrode in the electrolyte has a redox potential of less than or equal to 4.0 volts vs. Li/Li + . - a negative electrode having an electronically conductive substrate, and - a sulfur dioxide-containing electrolyte, and - a positive electrode having a porous structure, wherein the active material of the positive electrode is contained in the porous structure, and wherein the active material of the positive electrode is arranged in the vicinity of the electronically conductive substrate of the negative electrode, and wherein - at least part of the active metal resulting from the electrode reaction at the negative electrode penetrates into the pores of the positive electrode, and wherein the entire surface of the active material of the positive electrode is covered with a layer of metal dithionite, and
Method for controlling the distribution and compaction of crops in a flat silo, in which a controller - determines in dependence on first input variables, which reproduce material properties of the crop , a dry substance density D Mdry to be achieved, - determines a compacting pressure p d that can be generated as a maximum by evaluating second input variables, which reproduce operating properties and/or specifications of a silo vehicle used for the compaction, - determines on the basis of the determined dry substance density D Mdry to be achieved and the determined maximum compacting pressure p d that can be generated a maximum permissible layer thickness d max for carrying out the distributing and compacting operation, - determines in a location-specific manner a layer thickness d akt applied at the time while carrying out the distributing and compacting operation, - carries out a comparison between the determined maximum permissible layer thickness d max and the layer thickness d akt applied at the time, determined in a location-specific manner, in order to determine a target layer thickness d soll of the crop that is optimized in a location-specific manner for carrying out the distributing and compacting operation, and - activates an adjusting device of a distributing tool , provided on the silo vehicle , for the purpose of making the layer thickness d akt applied at the time, determined in a location-specific manner, match the optimized layer thickness d soll , determined in a location-specific manner. - determines in dependence on first input variables, which reproduce material properties of the crop , a dry substance density D Mdry to be achieved, - determines a compacting pressure p d that can be generated as a maximum by evaluating second input variables, which reproduce operating properties and/or specifications of a silo vehicle used for the compaction, - determines on the basis of the determined dry substance density D Mdry to be achieved and the determined maximum compacting pressure p d that can be generated a maximum permissible layer thickness d max for carrying out the distributing and compacting operation, - determines in a location-specific manner a layer thickness d akt applied at the time while carrying out the distributing and compacting operation, - carries out a comparison between the determined maximum permissible layer thickness d max and the layer thickness d akt applied at the time, determined in a location-specific manner, in order to determine a target layer thickness d soll of the crop that is optimized in a location-specific manner for carrying out the distributing and compacting operation, and - activates an adjusting device of a distributing tool , provided on the silo vehicle , for the purpose of making the layer thickness d akt applied at the time, determined in a location-specific manner, match the optimized layer thickness d soll , determined in a location-specific manner.
A light emitting diode, comprising: a Group III nitride based superlattice comprising at least two periods of alternating layers of In x Ga 1-x N and In y Ga 1-y N where 0≤X≤1 and X≠Y; a Group III nitride based light emitting diode active region on the superlattice and comprising at least one quantum well structure comprising indium; an undoped aluminum indium gallium nitride (AlInGaN) capping layer on the light emitting diode active region; a p-type Group III nitride based layer including aluminum and indium on the capping layer; and a p-type gallium nitride (GaN) contact layer on the p-type Group III nitride based layer; wherein the undoped aluminum indium gallium nitride (AlInGaN) capping layer is distinct from the light emitting diode active region and provides a transition from the lattice structure of the active region to the lattice structure of the p-type Group III nitride based layer including aluminum and indium by closely lattice matching the capping layer to the quantum wells of the at least one quantum well structure of the active region . a Group III nitride based superlattice comprising at least two periods of alternating layers of In x Ga 1-x N and In y Ga 1-y N where 0≤X≤1 and X≠Y; a Group III nitride based light emitting diode active region on the superlattice and comprising at least one quantum well structure comprising indium; an undoped aluminum indium gallium nitride (AlInGaN) capping layer on the light emitting diode active region; a p-type Group III nitride based layer including aluminum and indium on the capping layer; and a p-type gallium nitride (GaN) contact layer on the p-type Group III nitride based layer; wherein the undoped aluminum indium gallium nitride (AlInGaN) capping layer is distinct from the light emitting diode active region and provides a transition from the lattice structure of the active region to the lattice structure of the p-type Group III nitride based layer including aluminum and indium by closely lattice matching the capping layer to the quantum wells of the at least one quantum well structure of the active region .
A portable air purifier comprising: a case having an accommodation space, a front side and a rear side of the accommodation space being open; a fan assembly accommodated in the accommodation space and including a blower fan ; a fan cover accommodated in the accommodation space and disposed in front of the fan assembly , the fan cover is coupled to the fan assembly ; and a filter module accommodated in the accommodation space and is disposed behind the fan assembly , wherein the case includes a first support surface which protrudes from an inner circumferential surface of the case and is disposed behind the fan cover to face the fan cover and a second support surface which protrudes from the inner circumferential surface of the case and is disposed in front of the at least a portion of the filter module to face at least a portion of the filter module , and the fan cover and the filter module are coupled in a front-rear direction with the first support surface and the second support surface interposed therebetween and are fixed to the case . a case having an accommodation space, a front side and a rear side of the accommodation space being open; a fan assembly accommodated in the accommodation space and including a blower fan ; a fan cover accommodated in the accommodation space and disposed in front of the fan assembly , the fan cover is coupled to the fan assembly ; and a filter module accommodated in the accommodation space and is disposed behind the fan assembly , wherein the case includes a first support surface which protrudes from an inner circumferential surface of the case and is disposed behind the fan cover to face the fan cover and a second support surface which protrudes from the inner circumferential surface of the case and is disposed in front of the at least a portion of the filter module to face at least a portion of the filter module , and the fan cover and the filter module are coupled in a front-rear direction with the first support surface and the second support surface interposed therebetween and are fixed to the case .
A wellbore communication system comprising: a downhole tool having a downhole transmitter ; a sensing element for location at surface and coupled to a surface receiver ; and an insulated slickline having an electrically conductive core surrounded by an insulating coating, wherein the slickline is attached to the downhole tool and coupled to the downhole transmitter , and the sensing element and the slickline are capacitively coupled so as to permit relative movement therebetween and so as to permit an electric field to extend from the core of the slickline to the sensing element through the insulating coating of the slickline for transmission of information from the downhole transmitter to the surface receiver via the slickline and the sensing element , wherein the slickline extends through the sensing element , wherein the sensing element extends along a direction of the slickline , wherein the sensing element defines an elongated channel through which the slickline extends, and wherein a length of the elongated channel is greater than a diameter of the slickline . a downhole tool having a downhole transmitter ; a sensing element for location at surface and coupled to a surface receiver ; and an insulated slickline having an electrically conductive core surrounded by an insulating coating, wherein the slickline is attached to the downhole tool and coupled to the downhole transmitter , and the sensing element and the slickline are capacitively coupled so as to permit relative movement therebetween and so as to permit an electric field to extend from the core of the slickline to the sensing element through the insulating coating of the slickline for transmission of information from the downhole transmitter to the surface receiver via the slickline and the sensing element , wherein the slickline extends through the sensing element , wherein the sensing element extends along a direction of the slickline , wherein the sensing element defines an elongated channel through which the slickline extends, and wherein a length of the elongated channel is greater than a diameter of the slickline .
Pipe connection , in particular for a drinking water distribution system, comprising a first pipe socket and a second pipe socket , the first pipe socket and the second pipe socket being designed in such a way that the first pipe socket can be held against rotation on the second pipe socket by means of a first form-fitting formed by the first and second pipe sockets , and the pipe connection comprising an outer sleeve , in particular a union nut, which can be fixed axially in a form-fitting manner on the second pipe socket , with which sleeve the first pipe socket is held axially in the connected state, the first pipe socket being held axially in the connected state by the outer sleeve by means of a second form-fitting , and the first pipe socket being held axially in the connected state by the outer sleeve by means of a second form-fitting , 320), and wherein the second form-fitting on the outer sleeve comprises an at least regionally circumferential, radially inwardly projecting shoulder and the first pipe socket comprises an at least regionally circumferential, radially outwardly projecting flange , wherein in the connected state the flange engages behind the shoulder , wherein in particular the flange comprises the outer contour, characterised in that in a first rotational orientation relative to the outer sleeve the flange can be pushed through an opening defined by the shoulder and in a second rotational orientation relative to the outer sleeve it cannot be pushed through the opening.