mhurhangee/patent-ind-claim-en huggingface dataset:
A optical analysis system comprising: an optical cell having a housing and an interior fluid chamber defined by an interior surface of the housing; a process inlet disposed in the housing and in fluid communication with the interior fluid chamber; a process outlet disposed in the housing and in fluid communication with the interior fluid chamber, wherein the process inlet and process outlet facilitate the flow of a fluid through the interior fluid chamber; an optical element configured to direct electromagnetic radiation through a portion of the fluid flowing through the interior fluid chamber; a temperature sensor configured to measure a temperature within the interior fluid chamber and a temperature controller configured to control a temperature of the optical cell; a sampling outlet disposed in the housing and in fluid communication with the interior fluid chamber; a first bi-directional pump and a first storage vessel , the first bi-directional pump being in fluid communication with the sampling outlet and the first storage vessel, wherein the first bi-directional pump is configured to withdraw a first sample of the fluid flowing through the interior fluid chamber via the sampling outlet and to cause the first sample to flow into the first storage vessel; and an analyzer configured to analyze at least a portion of contents of the first storage vessel to provide one or more of spectral, chemical, and mechanical characteristics of the portion of contents. an optical cell having a housing and an interior fluid chamber defined by an interior surface of the housing; a process inlet disposed in the housing and in fluid communication with the interior fluid chamber; a process outlet disposed in the housing and in fluid communication with the interior fluid chamber, wherein the process inlet and process outlet facilitate the flow of a fluid through the interior fluid chamber; an optical element configured to direct electromagnetic radiation through a portion of the fluid flowing through the interior fluid chamber; a temperature sensor configured to measure a temperature within the interior fluid chamber and a temperature controller configured to control a temperature of the optical cell; a sampling outlet disposed in the housing and in fluid communication with the interior fluid chamber; a first bi-directional pump and a first storage vessel , the first bi-directional pump being in fluid communication with the sampling outlet and the first storage vessel, wherein the first bi-directional pump is configured to withdraw a first sample of the fluid flowing through the interior fluid chamber via the sampling outlet and to cause the first sample to flow into the first storage vessel; and an analyzer configured to analyze at least a portion of contents of the first storage vessel to provide one or more of spectral, chemical, and mechanical characteristics of the portion of contents.
A cuboid-shaped housing for accommodating a plurality of cuboid-shaped accumulators , which are intended as an energy source for the traction drive of motor vehicles, in particular automobiles, the housing having a base wall , first and second circumferential side walls connected thereto and a cover releasably connected to the free ends of the side walls , the housing being a sheet metal component bent from a sheet metal plate, the side walls being bent at right angles in the same direction from the base wall and their free ends being bent at right angles outwards, directed away from the housing interior, characterized by that a narrow seam region is folded over in the opposite direction so that a double layer is formed, and that the exposed upper seam region of the double layer is tightly connected to the cover , the cut edge of the seam region lying within the sealed housing region.
An air vehicle comprising an air vehicle control system comprising: a computer-implemented controller configured to control the air vehicle, four sections comprising electrical and mechanical devices operatively connected to the controller via a control data bus and an actuation bus ; wherein the four sections comprise a forward sector , a left engine sector , a right engine sector , and an aft sector ; and wherein the air vehicle is logically divided into the four sections of electrical and mechanical devices of the air vehicle, wherein the controller is configured to control all four sections of electrical and mechanical devices of the air vehicle; and wherein the aft sector comprises a mid-controls unit operatively connected with one or more engines of the air vehicle via the control data bus and the actuation bus , wherein the mid-controls unit is configured as a control center interfacing with the one or more engines, with a landing gear of the air vehicle , and with one or more electric brakes of the air vehicle . a computer-implemented controller configured to control the air vehicle, four sections comprising electrical and mechanical devices operatively connected to the controller via a control data bus and an actuation bus ; wherein the four sections comprise a forward sector , a left engine sector , a right engine sector , and an aft sector ; and wherein the air vehicle is logically divided into the four sections of electrical and mechanical devices of the air vehicle, wherein the controller is configured to control all four sections of electrical and mechanical devices of the air vehicle; and wherein the aft sector comprises a mid-controls unit operatively connected with one or more engines of the air vehicle via the control data bus and the actuation bus , wherein the mid-controls unit is configured as a control center interfacing with the one or more engines, with a landing gear of the air vehicle , and with one or more electric brakes of the air vehicle .
A grease composition for rolling bearings of automotive electrical equipment or automotive auxiliaries, comprising: a base oil that comprises as an essential component an alkyldiphenyl ether oil; as a thickener, 15 to 25 mass% of a diurea compound represented by the following formula : wherein R 2 is a diphenylmethane group; and R 1 and R 3 , which may be the same or different represent an aromatic hydrocarbon group having 6 to 12 carbon atoms; and as an anti-flaking additive, 0.2 to 5 mass % of an organic sulfonate rust inhibitor and 0.2 to 5 mass% of a load carrying additive, the organic sulfonate rust inhibitor being at least one selected from the group consisting of zinc dinonylnaphthalenesulfonate and calcium dinonylnaphthalenesulfonate, and the load carrying additive being at least one selected from the group consisting of thiocarbamates and thiophosphates; and 0.5 to 4 mass% of an amine type antioxidant and/or 0.5 to 4 mass% of a phenol type antioxidant, and wherein all mass percents are based on the total mass of the grease composition. a base oil that comprises as an essential component an alkyldiphenyl ether oil; as a thickener, 15 to 25 mass% of a diurea compound represented by the following formula : wherein R 2 is a diphenylmethane group; and R 1 and R 3 , which may be the same or different represent an aromatic hydrocarbon group having 6 to 12 carbon atoms; and as an anti-flaking additive, 0.2 to 5 mass % of an organic sulfonate rust inhibitor and 0.2 to 5 mass% of a load carrying additive, the organic sulfonate rust inhibitor being at least one selected from the group consisting of zinc dinonylnaphthalenesulfonate and calcium dinonylnaphthalenesulfonate, and the load carrying additive being at least one selected from the group consisting of thiocarbamates and thiophosphates; and 0.5 to 4 mass% of an amine type antioxidant and/or 0.5 to 4 mass% of a phenol type antioxidant, and wherein all mass percents are based on the total mass of the grease composition. wherein R 2 is a diphenylmethane group; and R 1 and R 3 , which may be the same or different represent an aromatic hydrocarbon group having 6 to 12 carbon atoms; and as an anti-flaking additive, 0.2 to 5 mass % of an organic sulfonate rust inhibitor and 0.2 to 5 mass% of a load carrying additive, the organic sulfonate rust inhibitor being at least one selected from the group consisting of zinc dinonylnaphthalenesulfonate and calcium dinonylnaphthalenesulfonate, and the load carrying additive being at least one selected from the group consisting of thiocarbamates and thiophosphates; and 0.5 to 4 mass% of an amine type antioxidant and/or 0.5 to 4 mass% of a phenol type antioxidant, and wherein all mass percents are based on the total mass of the grease composition.
Use of a base material in culture of cell(s), the base material comprising a polyester resin comprising a dicarboxylic acid unit and a diol unit, wherein 1 to 80% by mol of the diol unit is a diol unit having a cyclic acetal structure. comprising a polyester resin comprising a dicarboxylic acid unit and a diol unit, wherein 1 to 80% by mol of the diol unit is a diol unit having a cyclic acetal structure.
A radio resource scheduling method, wherein the method is applied to unlicensed spectrum-based radio communication, and the method comprises: • determining, by a terminal, a channel status of a channel according to at least one of first status information that is of the channel and that is indicated by a secondary eNodeB or second status information that is of the channel and that is obtained by the terminal (step 101), the method being characterized in that it further comprises: • sending, by the terminal, to a master eNodeB a first notification message used to indicate the channel status (step 102), wherein the first notification message is further used to indicate a first duration of channel occupancy of the channel and/or a second duration of channel releasing of the channel, or, the first notification message is further used to indicate whether the channel is occupied and whether the channel is released. • determining, by a terminal, a channel status of a channel according to at least one of first status information that is of the channel and that is indicated by a secondary eNodeB or second status information that is of the channel and that is obtained by the terminal (step 101), the method being characterized in that it further comprises: • sending, by the terminal, to a master eNodeB a first notification message used to indicate the channel status (step 102), wherein the first notification message is further used to indicate a first duration of channel occupancy of the channel and/or a second duration of channel releasing of the channel, or, the first notification message is further used to indicate whether the channel is occupied and whether the channel is released.
A process for refining cotton-based textile waste materials, where the textile material is subjected to two or more treatment steps selected from chemical and optionally enzymatic treatment steps, characterized by one treatment step being an alkaline extraction, and by carrying out a carbamation step on the chemically treated textile material, with the material at a solids content of 70 w-%.
A method, in a reception point of a communication system, of providing a user equipment with a virtual cell ID, the method comprising the steps of: receiving (S201) a virtual cell ID corresponding to the reception point from a network control device, the virtual cell ID being used for indicating a cluster to which the reception point belongs; providing (S202) the virtual cell ID to at least one user equipment served by the reception point; and transmitting (S203) resource index information corresponding to each user equipment among the at least one user equipment respectively to the each user equipment, characterised in that the step of providing (S202) the virtual cell ID comprises: transmitting reference signal port information corresponding to each user equipment among the at least one user equipment respectively to the each user equipment to be used for determining a virtual cell ID corresponding to the present user equipment from a port-to-virtual cell ID mapping table according to the reference signal port information.
Method for opening an emergency door of an aircraft cabin (C1) in a fuselage according to opening kinematics for a door arranged in a cutout in the fuselage , from an initial door state in the closed position, with a profile aligned with the fuselage , such that it consists in carrying out the following succession of steps, generated in succession by the action of an opening control : a step of activation of intermediary movement units , in order to unlock and unblock a pivoting control transmission via a combined rotation between these intermediary movement units , comprising a first and a second intermediary movement unit, respectively for locking/unlocking and for blocking/unblocking, the first intermediary unit having a locking function which can be released from the second intermediary unit , and the second unit having a function of blocking the access to movement, which is released when the first intermediary unit has been disarmed, and these intermediary movement units having longitudinal axes of rotation supported by the door , at a distance which is designed to allow this combined rotation, a step of inclined lifting thus generated in association with the fuselage , by means of inclined sliding of the upper edge of the door towards the interior of the cabin (I), and simultaneously lifting and sliding of its lower edge , followed, by means of doubling-back of movement, by a step of exteriorization of the lower edge of the door outside the cabin (C1), by inclined sliding of the upper and lower edges of the door in the inverse direction, and according to an inclination which is substantially the same as that of the upper edge in the lifting step, repositioning the upper edge of the door simultaneously at the fuselage , and a final step of pivoting of the door by means of locking and blocking of the control transmission on the door , which is then pivoted around a longitudinal axis of rotation of the fuselage (A1), with the slidings being created by upper and lower guides for connection between frameworks of the door and of the fuselage opposite, as well as by guides for cooperation of the control transmission with the door .
A roller hinge, in particular for plastic doors and plastic windows, comprising a frame part , which can be fastened to a door or window frame , comprising two hinge rolls , which are arranged in a vertically and horizontally adjustable manner on the frame part , and comprising a sash part , which can be fastened to a door or window sash and which is arranged in a rotationally movable manner between the two hinge rolls , characterized in that the hinge rolls, which are not physically connected to one another, in each case have a hinge strap , which is arranged in a vertically movable manner in an assigned recess within the frame part and which is guided in a vertically movable manner on a clamping plate , that the clamping plate is guided in a linearly movable manner between two horizontal guide surfaces within the assigned recess of the frame part in the depth direction (x) of the door or window frame , and that at least one clamping screw , which is arranged in a threaded bore of the frame part , acts on the clamping plate .
Method for faceting at least one workpiece edge on at least one workpiece side of at least one workpiece by means of an apparatus comprising at least one workpiece holder , at least one measuring device and at least one power faceting tool , which is movable relative to the workpiece holder , and a machine controller, the method comprising the following method steps: - delivering the at least one workpiece , - positioning and securing the at least one workpiece on the workpiece holder , - determining the position of the at least one workpiece edge relative to the workpiece holder by means of the measuring device , and - moving the at least one faceting tool along the at least one workpiece edge and producing the facet, characterized in that - the workpiece is a sheet, in particular a plate-shaped sheet, which is produced by means of a stamping process, a laser cutting process or a nibbling process, and - in that the securing of the workpiece on the workpiece holder is carried out magnetically and/or by means of a partial vacuum and in that the workpiece holder is activated by the machine controller. - delivering the at least one workpiece , - positioning and securing the at least one workpiece on the workpiece holder , - determining the position of the at least one workpiece edge relative to the workpiece holder by means of the measuring device , and - moving the at least one faceting tool along the at least one workpiece edge and producing the facet, - the workpiece is a sheet, in particular a plate-shaped sheet, which is produced by means of a stamping process, a laser cutting process or a nibbling process, and - in that the securing of the workpiece on the workpiece holder is carried out magnetically and/or by means of a partial vacuum and in that the workpiece holder is activated by the machine controller.
A guide catheter extension, comprising a tube, having a proximal end and a push rod that is connected to said tube at said proximal end; wherein said tube comprises at least one zone along a portion of the length of the tube, the zone comprising a plurality of units, wherein the units of the zone are distributed circumferentially around the tube in at least one first band, each unit of the zone comprises at least one cutout segment that is oriented around a centre of symmetry, wherein the centre of symmetry of each unit in the band is positioned equally from the centre of symmetry of an adjacent unit in the same band and the centre of symmetry of each unit is positioned at the same point relative to the circumference of the tube as the centre of symmetry of a second unit in a third band which is separated by a second band from the first band; wherein said tube is configured to be received inside a guide catheter having an inner diameter; and wherein said tube portion has an outer diameter and characterized in that said tube comprises a radially outwardly extending flare at said proximal end that has a greater diameter than the outer dimeter of said tube portion; wherein said flare is configured to substantially seal against said inner diameter of said guide catheter. wherein said tube comprises at least one zone along a portion of the length of the tube, the zone comprising a plurality of units, wherein the units of the zone are distributed circumferentially around the tube in at least one first band, each unit of the zone comprises at least one cutout segment that is oriented around a centre of symmetry, wherein the centre of symmetry of each unit in the band is positioned equally from the centre of symmetry of an adjacent unit in the same band and the centre of symmetry of each unit is positioned at the same point relative to the circumference of the tube as the centre of symmetry of a second unit in a third band which is separated by a second band from the first band; wherein said tube is configured to be received inside a guide catheter having an inner diameter; and wherein said tube portion has an outer diameter and characterized in that said tube comprises a radially outwardly extending flare at said proximal end that has a greater diameter than the outer dimeter of said tube portion; wherein said flare is configured to substantially seal against said inner diameter of said guide catheter.
A method performed by a network node for setting the size of a control region of a subframe that comprises the control region and a data region which follows the control region, the method comprising: a) the network node selecting an initial size for the control region of the subframe; b) the network node determining whether the initial size for the control region is less than a predetermined maximum control region size; c) in response to determining that the initial size is less than the predetermined maximum control region size, the network node selecting a final size for the control region of the subframe based on a data region load; and d) after selecting the final size for the control region, the network node transmitting the subframe , wherein the control region of the subframe comprises information identifying the selected final size, and the size of the control region is equal to the selected final size. a) the network node selecting an initial size for the control region of the subframe; b) the network node determining whether the initial size for the control region is less than a predetermined maximum control region size; c) in response to determining that the initial size is less than the predetermined maximum control region size, the network node selecting a final size for the control region of the subframe based on a data region load; and d) after selecting the final size for the control region, the network node transmitting the subframe , wherein the control region of the subframe comprises information identifying the selected final size, and the size of the control region is equal to the selected final size.
An electrochemical hydrogen pump comprising: at least one hydrogen pump unit including an electrolyte membrane , an anode (AN) in contact with one main surface of the electrolyte membrane , a cathode (CA) in contact with another main surface of the electrolyte membrane , an anode separator stacked on the anode (AN), and a cathode separator stacked on the cathode (CA), the at least one hydrogen pump unit transferring, to the cathode (CA), hydrogen contained in a hydrogen-containing gas supplied to the anode (AN) and pressurizing the hydrogen; a first fixing member for preventing movement of the cathode separator in a direction in which the cathode separator is stacked; a first end plate disposed on the anode separator positioned at one end in the stacking direction; a second end plate disposed on the cathode separator positioned at another end in the stacking direction; and characterized by a first gas flow channel through which hydrogen in the cathode (CA) is supplied to a first space formed between the second end plate and the cathode separator , wherein the first gas flow channel includes a cathode gas discharge manifold and a cathode gas supplying channel connecting the cathode gas discharge manifold and the first space to each other. at least one hydrogen pump unit including an electrolyte membrane , an anode (AN) in contact with one main surface of the electrolyte membrane , a cathode (CA) in contact with another main surface of the electrolyte membrane , an anode separator stacked on the anode (AN), and a cathode separator stacked on the cathode (CA), the at least one hydrogen pump unit transferring, to the cathode (CA), hydrogen contained in a hydrogen-containing gas supplied to the anode (AN) and pressurizing the hydrogen; a first fixing member for preventing movement of the cathode separator in a direction in which the cathode separator is stacked; a first end plate disposed on the anode separator positioned at one end in the stacking direction; a second end plate disposed on the cathode separator positioned at another end in the stacking direction; and characterized by a first gas flow channel through which hydrogen in the cathode (CA) is supplied to a first space formed between the second end plate and the cathode separator , wherein the first gas flow channel includes a cathode gas discharge manifold and a cathode gas supplying channel connecting the cathode gas discharge manifold and the first space to each other.