mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid composition comprising one or more steviol glycosides, wherein: a. the concentration of the one or more steviol glycosides in the composition comprises at least 5 wt% of the composition, b. the one or more steviol glycosides comprise 10 to 95 wt% Rebaudioside O; and c. the liquid composition is an aqueous composition. a. the concentration of the one or more steviol glycosides in the composition comprises at least 5 wt% of the composition, b. the one or more steviol glycosides comprise 10 to 95 wt% Rebaudioside O; and c. the liquid composition is an aqueous composition.
Apparatus for unlocking a RAT actuator, the apparatus comprising: a first member mounted in a housing for rotation about an axis (A) and having a circumferentially extending surface ; and a second member for operative connection to a lock release element of the RAT actuator, arranged for movement in a direction generally transverse to the axis of rotation of the first member and having a follower element resiliently biased into contact with the circumferentially extending surface of the first member ; characterised in that : a recess being formed in a section of the circumferentially extending surface of the first member ; and by furher comprising: a rotary actuator for rotating the first member about the axis between a first, locking position in which the follower element engages on the circumferentially extending surface and a second, unlocking position in which the follower element is at least partially received within the recess . a first member mounted in a housing for rotation about an axis (A) and having a circumferentially extending surface ; and a second member for operative connection to a lock release element of the RAT actuator, arranged for movement in a direction generally transverse to the axis of rotation of the first member and having a follower element resiliently biased into contact with the circumferentially extending surface of the first member ; characterised in that : a recess being formed in a section of the circumferentially extending surface of the first member ; and by furher comprising: a rotary actuator for rotating the first member about the axis between a first, locking position in which the follower element engages on the circumferentially extending surface and a second, unlocking position in which the follower element is at least partially received within the recess .
A method for producing a scattered particle mat on a scattering conveyor belt in the course of manufacturing wood material boards, with a scattering device that comprises at least one scattering particle silo and a scattering head , which is arranged underneath the scattering particle silo and above the scattering conveyor belt , wherein the scattering head has multiple scattering rollers that are distributed along the transport direction (T) and scatter the scattering particles on the scattering conveyor belt , wherein the scattering head has at least two scattering regions that are arranged behind one another and respectively have a different roller geometry and/or a different roller operating mode, and wherein a switching device is arranged between the scattering particle silo and the scattering head and the scattering particle flow out of the scattering particle silo is selectively conveyed to either only the first scattering region or only the second scattering region of the scattering head by means of said switching device, characterized in that the scattering particle silo is selectively filled with different types of scattering particles, and in that the scattering particle flow out of the scattering particle silo is selectively conveyed to either only the first scattering region or only the second scattering region of the scattering head by means of the switching device in dependence on the scattering particles contained in the scattering particle silo . with a scattering device that comprises at least one scattering particle silo and a scattering head , which is arranged underneath the scattering particle silo and above the scattering conveyor belt , wherein the scattering head has multiple scattering rollers that are distributed along the transport direction (T) and scatter the scattering particles on the scattering conveyor belt , wherein the scattering head has at least two scattering regions that are arranged behind one another and respectively have a different roller geometry and/or a different roller operating mode, and wherein a switching device is arranged between the scattering particle silo and the scattering head and the scattering particle flow out of the scattering particle silo is selectively conveyed to either only the first scattering region or only the second scattering region of the scattering head by means of said switching device, characterized in that the scattering particle silo is selectively filled with different types of scattering particles, and in that the scattering particle flow out of the scattering particle silo is selectively conveyed to either only the first scattering region or only the second scattering region of the scattering head by means of the switching device in dependence on the scattering particles contained in the scattering particle silo .
A method for treating process material using a plurality of autoclaves, each of the plurality of autoclaves comprising a hollow vessel having a longitudinal axis and an interior for receiving process material to be treated, wherein each of the plurality of autoclaves cycles through the following: introducing steam from one or more of the plurality of autoclaves to the interior of the vessel of another of the one or more of the plurality of autoclaves ; increasing a temperature within the vessel by adding heat to the interior of the vessel using an indirect heat source; reducing the temperature and pressure within the vessel by flashing a portion of the steam within the interior of the vessel to another one of the plurality of vessels while maintaining the temperature in the vessel within the range of the process material cooking temperature; increasing the temperature within the vessel by continuing to add heat to the interior of the vessel using the indirect heat source after flashing the portion of the steam within the interior of the vessel ; reducing a moisture content of the process material in the interior of vessel to a predetermined value with the heat from the indirect heat source; and venting a remaining portion of the steam to another one of the plurality of vessels . introducing steam from one or more of the plurality of autoclaves to the interior of the vessel of another of the one or more of the plurality of autoclaves ; increasing a temperature within the vessel by adding heat to the interior of the vessel using an indirect heat source; reducing the temperature and pressure within the vessel by flashing a portion of the steam within the interior of the vessel to another one of the plurality of vessels while maintaining the temperature in the vessel within the range of the process material cooking temperature; increasing the temperature within the vessel by continuing to add heat to the interior of the vessel using the indirect heat source after flashing the portion of the steam within the interior of the vessel ; reducing a moisture content of the process material in the interior of vessel to a predetermined value with the heat from the indirect heat source; and venting a remaining portion of the steam to another one of the plurality of vessels .
Electrical machine with - a stator , - a rotor and - a shaft , which is mechanically joined to the rotor , wherein - the shaft has a cooling device , wherein the shaft has a recess , into at least some regions of which the cooling device is inserted, wherein the shaft is constructed so that it can rotate relative to the cooling device , wherein the cooling device is constructed for a coolant to flow through it, characterised in that the cooling device is arranged in the recess in such a way that an air gap is formed in a space between the cooling device and the recess , wherein, when the electrical machine is in operation, heat generated in the rotor due to losses is transmitted to the shaft and from the shaft to the cooling device across the air gap . - a stator , - a rotor and - a shaft , which is mechanically joined to the rotor , wherein - the shaft has a cooling device , wherein
A frame (102; 202; 302; 402; 502; 602; 702) for a prosthetic heart valve, the frame (102; 202; 302; 402; 502; 602; 702) being formed of stainless steel and/or a cobalt-chromium alloy or a nickel-cobalt-chromium alloy or a nickel-cobalt-chromium-molybdenum alloy, and comprising: - an inflow end (103; 203) and an outflow end (105; 205), - an upper row with outflow cells formed by a total of eight struts, the upper row being arranged at the outflow end (105; 205) and comprising: - a first row of angled struts and a second row of angled struts that each are arranged along a circumference of the frame (102; 202; 302; 402; 502; 602; 702), and - axial frame members (130, 132; 230, 232; 330, 332; 430, 432; 530, 532; 630, 632; 730, 732) bridging the first row of angled struts and the second row of angled struts and extending only between the first row of angled struts and the second row of angled struts. - an inflow end (103; 203) and an outflow end (105; 205), - an upper row with outflow cells formed by a total of eight struts, the upper row being arranged at the outflow end (105; 205) and comprising: - a first row of angled struts and a second row of angled struts that each are arranged along a circumference of the frame (102; 202; 302; 402; 502; 602; 702), and - axial frame members (130, 132; 230, 232; 330, 332; 430, 432; 530, 532; 630, 632; 730, 732) bridging the first row of angled struts and the second row of angled struts and extending only between the first row of angled struts and the second row of angled struts. - a first row of angled struts and a second row of angled struts that each are arranged along a circumference of the frame (102; 202; 302; 402; 502; 602; 702), and - axial frame members (130, 132; 230, 232; 330, 332; 430, 432; 530, 532; 630, 632; 730, 732) bridging the first row of angled struts and the second row of angled struts and extending only between the first row of angled struts and the second row of angled struts.
An alarm valve station for a fire alarm system , having an alarm valve , in particular a wet alarm valve, having an extinguishing fluid inlet and an extinguishing fluid outlet , wherein the alarm valve is configured to selectively release or block the extinguishing fluid flow between the extinguishing fluid inlet and the extinguishing fluid outlet , a pressure sensor which is in fluid communication with the alarm valve and which is configured to detect a change in pressure and to convert this into an electrical alarm signal , and an alarm delay device for delaying the alarm signal, characterized in that the alarm delay device is an electrical alarm delay device and is in signal-communication with the pressure sensor .
A lithium ion capacitor comprising: a lithium ion capacitor element formed by overlaying a positive electrode sheet and a negative electrode sheet on top of one another with a first separator formed of a first porous sheet interposed therebetween and a second separator formed of a second porous sheet on top of the negative electrode sheet ; an electrolyte solution; and an outer container that contains the lithium ion capacitor element and the electrolyte solution, wherein a porous layer is formed on an outer surface of the lithium ion capacitor element, the lithium ion capacitor comprises a lithium ion supply source , and the lithium ion capacitor satisfies a following relational expression : 35 ≤ T × R / C , characterized in that , the lithium ion capacitor satisfies a following relational expression : 0.01 ≤ R / C ≤ 5 ; wherein the porous layer is formed by overlaying plural layers of the first porous sheet ; the lithium ion supply source is arranged in the porous layer between adjacent layers of the first porous sheet ; a plurality of the layers of the first porous sheet are arranged on an outer surface of the lithium ion supply source ; where C is a capacitance of the lithium ion capacitor measured in kF, R is a direct current resistance value of the lithium ion capacitor measured in mΩ, and T is measured in μm and is a thickness of the porous layer measured as a distance from the outer surface of the lithium ion capacitor element to the outer surface of the lithium ion capacitor ; the capacitance C in kF is determined by the following formula: C = Id ∗ td / V 1 − V 2 ∗ 1000 ; the direct current resistance value in mΩ is determined by the following formula: R = V 0 − V 1 / Id ∗ 1000 ; Id is a discharge current measured in A, td is a discharge time measured in s, V0 is a voltage at the start of the discharge measured in V, V2 is a discharge cut-off voltage measured in V, V1 is another voltage measured in V; and Id, td, Vo, V1, and V2 are determined as described in the description.
A formulation comprising: a. 0.1 to 7 wt.% of at least one block copolymer of ethylene oxide and propylene oxide, generally having the structure of ethylene oxide-propylene oxide-ethylene oxide; b. 0.1 to 5 wt.% of at least one polyacrylic acid salt; c. 0.01 to 3 wt.% of at least one propoxylated ethylenediamine compound. a. 0.1 to 7 wt.% of at least one block copolymer of ethylene oxide and propylene oxide, generally having the structure of ethylene oxide-propylene oxide-ethylene oxide; b. 0.1 to 5 wt.% of at least one polyacrylic acid salt; c. 0.01 to 3 wt.% of at least one propoxylated ethylenediamine compound.
Vehicle door handle to control the opening of a vehicle door comprising a door latch mechanism , configured to release the vehicle door when actuated, and a handling element mobile with respect to a handle frame between a rest position and an actuation position in which it actuates the door latch mechanism , comprising at least one static magnetic element fixed in motion with the handle frame and at least one mobile magnetic element solidary in motion with the handling element , generating a haptic feedback by defining stable (S) or unstable positions (U1, U2) of the handling element in which the static and mobile magnetic element face and attract or repel each other, characterized in that it comprises guiding means for the motion of the handling element comprising static guiding means attached to the handle frame , and mobile guiding means attached to the handling element , and in that the static magnetic element is attached to the static guiding means and the mobile magnetic element is attached to the mobile guiding means . comprising at least one static magnetic element fixed in motion with the handle frame and at least one mobile magnetic element solidary in motion with the handling element , generating a haptic feedback by defining stable (S) or unstable positions (U1, U2) of the handling element in which the static and mobile magnetic element face and attract or repel each other, characterized in that it comprises guiding means for the motion of the handling element comprising static guiding means attached to the handle frame , and mobile guiding means attached to the handling element , and in that the static magnetic element is attached to the static guiding means and the mobile magnetic element is attached to the mobile guiding means .
A force airflow drying apparatus comprising: a body including: an air inlet disposed away from the user; a flow guide having a first end coupled to the air inlet and a second end opened to an upstream side of a filter unit ; an airflow generator to generate a forced airflow, the airflow generator having a first end and a second end, wherein the first end of the airflow generator is opened to a downstream side of the filter unit ; and an air outlet , in communication with the second end of the airflow generator , to receive the forced airflow from the airflow generator and to expel the forced airflow out of the body , characterised in that each flow guide forms, at least in part, a wall of the flow path between the downstream side of the filter unit and a respective flow generator . an air inlet disposed away from the user; a flow guide having a first end coupled to the air inlet and a second end opened to an upstream side of a filter unit ; an airflow generator to generate a forced airflow, the airflow generator having a first end and a second end, wherein the first end of the airflow generator is opened to a downstream side of the filter unit ; and an air outlet , in communication with the second end of the airflow generator , to receive the forced airflow from the airflow generator and to expel the forced airflow out of the body , characterised in that each flow guide forms, at least in part, a wall of the flow path between the downstream side of the filter unit and a respective flow generator .
Chain guard for an electric bicycle having an electric motor with a motor housing , the chain guard comprising means for mounting it to the motor housing so that the chain guard covers a section of a chain located on a sprocket driven by the electric motor, the chain guard comprising two lateral sections extending at a distance from and parallel to one another, the chain guard further comprising at least one peripheral section extending between the two lateral sections and defining a gap between the two lateral sections for accommodating the chain, characterized in that the chain guard extends only over a ring section that corresponds to a portion of the sprocket engaging the chain .
A polymer manufacturing apparatus comprising a polymerization reaction apparatus and a heat exchanger having a cooling passage connected to a polymer product outlet of the polymerization reaction apparatus, wherein said cooling passage includes a rigid outer tube for a cooling medium and a plurality of rigid outer tubes for solution arranged parallel to each other inside the rigid outer tube for a cooling medium , and characterized in that a thin inner tube is disposed inside each of said rigid outer tubes for solution , said thin inner tube having an outer diameter smaller than an inner diameter of said rigid outer tube for solution at normal temperature and pressure, expanding by an increase in at least one of temperature and pressure of a solution conveyed and, as a result, contacting with an inner surface of said rigid outer tube for solution , and moreover contracting in diameter, when said solution is cooled or pressure is dropped, so that there is a space between an inner circumferential surface of said rigid outer tube for solution and said thin inner tube , wherein said thin inner tube is removable from said rigid outer tube so that, when removed, the thin inner tube may be subjected to a polymer fouling removal process.
Method for detecting the rotary angle positions (α, β) of rotating parts of a wiper motor , the wiper motor having a brushless electric motor as a first part which comprises a rotor rotating about a first axis of rotation and which drives a gear wheel as a second part which rotates about a second axis of rotation and which comprises a driven shaft , and the rotary angle positions (α, β) of the two rotating parts being detected by means of two sensor devices each having a signal generating element (30; 30a; 30b, 36) and a sensor element (32; 32a to 32d; 40; 40a to 40d) for detecting a changing physical parameter of the signal generating element (30; 30a; 30b, 36), an absolute angle position (α, β) of both rotating parts is detected by means of a respective one of the sensor devices , the rotary angle positions (α, β) of the two rotating parts being matched with each other in such a manner that a specific rotary angle position (β) of the driven shaft is matched with at least one specific rotary angle position (α) of the rotor , that currently matched rotary angle positions (α, β) of the two rotating parts are compared to values stored in a storage and evaluation unit a signal or an error message is generated when a stored limit value (σ) between current values and stored values is exceeded, characterized in that a conclusion is drawn regarding a wear state of the rotating parts of the wiper motor and/or the temporal or angle-conforming activation of the wire windings of the stator are adapted or modified in response to said signal or error message.
Latch for a motor vehicle , in particular a side door latch, comprising a locking mechanism having a catch and at least one pawl, an actuating lever chain that has at least one actuating lever , and a release lever, it being possible to unlock a locked locking mechanism by means of the release lever, and having a coupling element between the actuating lever and the release lever, it being possible to control the coupling element by means of a mass inertia element mounted in the motor vehicle latch, characterized in that the mass inertia element is mounted in the motor vehicle latch by means of a plastics pin , the plastics pin having a joining surface , the joining surface being designed such that a spring preload (F) can be introduced into the mass inertia element , and it being possible to introduce the spring preload (F) into the mass inertia element by means of at least one tab , in particular two, three or more tabs , molded into the joining surface .
Optical device for shaping an electromagnetic wave beam, the beam being generated by a source and having a beam propagation direction and a focal point, comprising an optical element (7; 7a, 7b; 2b; 3; 4; 70) positioned within beam propagation direction, and an exciter means (6; 60; 66, 600) functionally connected to the optical element for inducing an oscillation of the focal point in at least one of an x direction and an y direction of a plane perpendicular to the beam propagation direction along a controllable focal point oscillation path , the x and y directions being non-parallel to each other, the optical device (1; 100; 110; 120) further comprising a control unit for controlling the exciter means; wherein the functional connection of the respective optical element to the exciter means is for inducing an oscillating repetitive movement of the optical element; characterized in that the exciter means has at least a first exciter unit (15; 17; 150) for inducing the x direction component of the focal point oscillation and at least a second exciter unit (15; 17; 150) for inducing the y direction component of the focal point oscillation. an exciter means (6; 60; 66, 600) functionally connected to the optical element for inducing an oscillation of the focal point in at least one of an x direction and an y direction of a plane perpendicular to the beam propagation direction along a controllable focal point oscillation path , the x and y directions being non-parallel to each other, the optical device (1; 100; 110; 120) further comprising a control unit for controlling the exciter means; wherein the functional connection of the respective optical element to the exciter means is for inducing an oscillating repetitive movement of the optical element; characterized in that the exciter means has at least a first exciter unit (15; 17; 150) for inducing the x direction component of the focal point oscillation and at least a second exciter unit (15; 17; 150) for inducing the y direction component of the focal point oscillation.