mhurhangee/patent-ind-claim-en huggingface dataset:
A medical fluid injection manifold comprising: a manifold housing having a first inlet port configured to receive a first pressurized medical fluid, a second inlet port configured to receive a second pressurized medical fluid, a first outlet port configured to discharge the first pressurized medical fluid, a second outlet port configured to discharge the second pressurized medical fluid and a bridge portion ; a pressure sensor configured to measure a hemodynamic pressure of a patient; characterized in that it further comprises: a first valve configured to control fluid flow between the first inlet port , the first outlet port , and the pressure sensor ; and a second valve configured to control fluid flow between the second inlet port and the second outlet port , wherein the bridge portion extends between the first valve and the second valve and the pressure sensor is positioned within the bridge portion of the manifold housing (80; and wherein the first valve and the second valve have a first operational position in which the first pressurized medical fluid is allowed to flow through the manifold housing , a second operational position in which the second pressurized medical fluid is allowed to flow through the manifold housing but the second pressurized medical fluid is blocked from communicating with the pressure sensor , and a third operational position in which fluid communication is open between the pressure sensor and the first outlet port . a manifold housing having a first inlet port configured to receive a first pressurized medical fluid, a second inlet port configured to receive a second pressurized medical fluid, a first outlet port configured to discharge the first pressurized medical fluid, a second outlet port configured to discharge the second pressurized medical fluid and a bridge portion ; a pressure sensor configured to measure a hemodynamic pressure of a patient; characterized in that it further comprises: a first valve configured to control fluid flow between the first inlet port , the first outlet port , and the pressure sensor ; and a second valve configured to control fluid flow between the second inlet port and the second outlet port , wherein the bridge portion extends between the first valve and the second valve and the pressure sensor is positioned within the bridge portion of the manifold housing (80; and wherein the first valve and the second valve have a first operational position in which the first pressurized medical fluid is allowed to flow through the manifold housing , a second operational position in which the second pressurized medical fluid is allowed to flow through the manifold housing but the second pressurized medical fluid is blocked from communicating with the pressure sensor , and a third operational position in which fluid communication is open between the pressure sensor and the first outlet port .
A method of generating protein-induced pluripotent stem cells, comprising: contacting somatic cells with QQ-reagent-modified reprogramming proteins, wherein the QQ-reagent-modified reprogramming proteins are bacterially-expressed reprogramming proteins that have been modified with a cocktail comprising polyethylenimine (PEI) and DOTAP/DOPE, thereby delivering the reprogramming proteins into nuclei of the somatic cells; performing several cycles of the foregoing contacting step to create reprogrammed protein-induced pluripotent stem (piPS) cells; moving the reprogrammed piPS cells into a feeder-free medium for expansion; and expanding and passaging the reprogrammed piPS cells thereby generating homogeneous piPS cells.
Assembly of a porous metallic gas diffusion substrate and a polymeric separator membrane for use in an alkaline electrolyser or alkaline fuel cell wherein - the polymeric separator membrane comprises inorganic hydrophilic particulates dispersed in an organic polymeric binder, - the polymeric separator membrane is gas tight when filled with electrolyte, - the polymeric separator membrane is penetrating into at least a top portion of the porous metallic gas diffusion substrate. - the polymeric separator membrane comprises inorganic hydrophilic particulates dispersed in an organic polymeric binder, - the polymeric separator membrane is gas tight when filled with electrolyte, - the polymeric separator membrane is penetrating into at least a top portion of the porous metallic gas diffusion substrate.
Method for modernizing a gas-turbine installation which has a combustion chamber lined with heat-shield elements and has a gas turbine arranged downstream of the combustion chamber and comprising guide vanes and rotor blades , wherein those heat-shield elements which are held immediately in front of the gas turbine in the downstream direction on the outer side of a positionally fixed support structure and vane platforms , held on a positionally fixed and a further positionally fixed support structure , of the guide vanes of a first guide-vane stage define annular gaps between them, wherein the method comprises the steps of: a) removing all the guide vanes of the first guide-vane stage; b) replacing the removed guide vanes of the first guide-vane stage with new or reconditioned guide vanes , wherein vane platforms of the new or reconditioned guide vanes are provided for the first time with cooling-air bores which fluidically connect a cooling-air-feed channel , which supplies cooling air to the guide vanes of the first guide-vane stage, to one of the annular gaps and which open out into the corresponding annular gap , and wherein the cooling-air bores are arranged in such a way that more cooling-air bores open out into regions of the annular gap or of the annular gaps that are arranged, in a radial direction, in the region of leading edges of the guide vanes than into other regions of the annular gap or of the annular gaps . wherein those heat-shield elements which are held immediately in front of the gas turbine in the downstream direction on the outer side of a positionally fixed support structure and vane platforms , held on a positionally fixed and a further positionally fixed support structure , of the guide vanes of a first guide-vane stage define annular gaps between them, wherein the method comprises the steps of: a) removing all the guide vanes of the first guide-vane stage; b) replacing the removed guide vanes of the first guide-vane stage with new or reconditioned guide vanes , a) removing all the guide vanes of the first guide-vane stage; b) replacing the removed guide vanes of the first guide-vane stage with new or reconditioned guide vanes , wherein vane platforms of the new or reconditioned guide vanes are provided for the first time with cooling-air bores which fluidically connect a cooling-air-feed channel , which supplies cooling air to the guide vanes of the first guide-vane stage, to one of the annular gaps and which open out into the corresponding annular gap , and wherein the cooling-air bores are arranged in such a way that more cooling-air bores open out into regions of the annular gap or of the annular gaps that are arranged, in a radial direction, in the region of leading edges of the guide vanes than into other regions of the annular gap or of the annular gaps .
A screening arrangement for screening of a window, said screening arrangement comprising: a screening body having an upper first end and a lower second end, said screening body being movable in a longitudinal direction between a non-screening position, in which the screening body is rolled up, and a screening position, in which the screening body is extended; a hollow rolling tube adapted for being rotatable when mounted, said rolling tube extending in a transverse direction perpendicular to the longitudinal direction and being connected to the first end of the screening body , such that the screening body is rolled up around the rolling tube in the non-screening position; a bottom bar extending parallel with the rolling tube , said bottom bar being connected to the second end of the screening body ; two guidance cords adapted for maintaining the bottom bar parallel with the rolling tube ; and a motor device comprising a motor , wherein the motor is arranged inside the rolling tube and is in engagement with the rolling tube , preferably by a pinion connected to the motor and an annular gear connected to the rolling tube , characterized in that the motor is arranged such that a clearance is provided within the cross-sectional space of the rolling tube , and at least one of the guidance cords pass the motor though the clearance . a screening body having an upper first end and a lower second end, said screening body being movable in a longitudinal direction between a non-screening position, in which the screening body is rolled up, and a screening position, in which the screening body is extended; a hollow rolling tube adapted for being rotatable when mounted, said rolling tube extending in a transverse direction perpendicular to the longitudinal direction and being connected to the first end of the screening body , such that the screening body is rolled up around the rolling tube in the non-screening position; a bottom bar extending parallel with the rolling tube , said bottom bar being connected to the second end of the screening body ; two guidance cords adapted for maintaining the bottom bar parallel with the rolling tube ; and a motor device comprising a motor , wherein the motor is arranged inside the rolling tube and is in engagement with the rolling tube , preferably by a pinion connected to the motor and an annular gear connected to the rolling tube , characterized in that the motor is arranged such that a clearance is provided within the cross-sectional space of the rolling tube , and at least one of the guidance cords pass the motor though the clearance .
An arrangement comprising a plurality of attenuators for attenuating acoustic waves, each attenuator of the plurality of attenuators comprising: a first body defining a cavity therein and at least one elongate open aperture (20, 20 1 , 20 2 , 20 3 , 20 4 , 44) extending across a substantial portion of the first body , the first body being configured to attenuate acoustic waves over a resonant frequency band, wherein the arrangement is configured so that acoustic waves incident upon an attenuator of the plurality of attenuators, enter the cavity through the open aperture (20, 20 1 , 20 2 , 20s, 20 4 , 44) and air in the cavity resonates to thereby attenuate said incident acoustic waves when a frequency of the acoustic waves is within the resonant frequency band of the cavity , characterised in that the at least some of the plurality of attenuators form a row, wherein adjacent attenuators in the row of attenuators abut one another. a first body defining a cavity therein and at least one elongate open aperture (20, 20 1 , 20 2 , 20 3 , 20 4 , 44) extending across a substantial portion of the first body , the first body being configured to attenuate acoustic waves over a resonant frequency band, wherein the arrangement is configured so that acoustic waves incident upon an attenuator of the plurality of attenuators, enter the cavity through the open aperture (20, 20 1 , 20 2 , 20s, 20 4 , 44) and air in the cavity resonates to thereby attenuate said incident acoustic waves when a frequency of the acoustic waves is within the resonant frequency band of the cavity , characterised in that the at least some of the plurality of attenuators form a row, wherein adjacent attenuators in the row of attenuators abut one another.
A control system including a charging station , a plurality of autonomous work machines , and a control apparatus configured to control the plurality of autonomous work machines each autonomous work machine comprises a blade for a work, characterized in that the control apparatus comprises: obtaining means for obtaining power information of each autonomous work machine estimation means for estimating the arrival of the charging timing of each autonomous work machine based on the power information; and control means for controlling each autonomous work machine based on the power information such that charging timings of the autonomous work machines at the charging station do not match each other, by changing power consumption of each autonomous work machine if the estimated charging timings match, and the control means being configured to change the power consumption of each autonomous work machine by changing a height of the blade for each autonomous work machine or by changing a rotation speed of the blade for each autonomous work machine. obtaining means for obtaining power information of each autonomous work machine estimation means for estimating the arrival of the charging timing of each autonomous work machine based on the power information; and control means for controlling each autonomous work machine based on the power information such that charging timings of the autonomous work machines at the charging station do not match each other, by changing power consumption of each autonomous work machine if the estimated charging timings match, and the control means being configured to change the power consumption of each autonomous work machine by changing a height of the blade for each autonomous work machine or by changing a rotation speed of the blade for each autonomous work machine.
A viscoelastic biostable foam comprising a triblock copolymer selected from the group consisting of and wherein m and p are each independently between 2 and 50 and n is between 2 and 20.
A method of molecular self-assembly, comprising: - extruding a stream of a dope solution of polymer molecules out of a capillary into a surrounding environment of a coaxially flowing focusing fluid miscible with the dope solution in a space limited by a convergent nozzle with an outlet that the dope and focusing fluid are forced to traverse; - hydrodynamically stretching the extruded stream of polymer dope solution inside the convergent nozzle due to its interaction with the focusing fluid while simultaneously and selectively extracting solvent into the focusing fluid from the dope solution by molecular diffusion; wherein polymer concentration in the dope solution at a stretched region of the stream reaches a level such that contact among polymer molecules results in molecular self-assembly of the polymer molecules and a delayed stretching is imposed when the dope solution and the focusing fluid are forced through the nozzle outlet; and - continuously extracting an elongated structure of self-assembled polymer molecules such as a fiber or a thread; wherein the capillary-nozzle system presents the following parameters: - distance between the end of the capillary and the outlet of the nozzle (d 5 ) between 400 and 15000 μm, - diameter of nozzle outlet (d 6 ) between 250 and 800 μm, and - dope capillary tapering angle (α) of 10° to 90°. - extruding a stream of a dope solution of polymer molecules out of a capillary into a surrounding environment of a coaxially flowing focusing fluid miscible with the dope solution in a space limited by a convergent nozzle with an outlet that the dope and focusing fluid are forced to traverse; - hydrodynamically stretching the extruded stream of polymer dope solution inside the convergent nozzle due to its interaction with the focusing fluid while simultaneously and selectively extracting solvent into the focusing fluid from the dope solution by molecular diffusion; wherein polymer concentration in the dope solution at a stretched region of the stream reaches a level such that contact among polymer molecules results in molecular self-assembly of the polymer molecules and a delayed stretching is imposed when the dope solution and the focusing fluid are forced through the nozzle outlet; and - continuously extracting an elongated structure of self-assembled polymer molecules such as a fiber or a thread; - distance between the end of the capillary and the outlet of the nozzle (d 5 ) between 400 and 15000 μm, - diameter of nozzle outlet (d 6 ) between 250 and 800 μm, and - dope capillary tapering angle (α) of 10° to 90°.
A user terminal, wherein a local profile assistant, LPA, and an embedded universal integrated circuit card, eUICC, are disposed in the user terminal, wherein the LPA is deployed in the eUICC, or the LPA and the eUICC are deployed independently, and the eUICC comprises a processing unit and a communications unit, wherein the processing unit is configured to receive, by using the communications unit, at least a first identifier sent by the local profile assistant LPA; the processing unit is further configured to receive, by using the communications unit, at least a first digital signature and a remote profile management command that are sent by the LPA; the processing unit is further configured to verify the first digital signature according to at least the first identifier and the remote profile management command; and the processing unit is further configured to execute the remote profile management command when the verification on the first digital signature succeeds. the processing unit is configured to receive, by using the communications unit, at least a first identifier sent by the local profile assistant LPA; the processing unit is further configured to receive, by using the communications unit, at least a first digital signature and a remote profile management command that are sent by the LPA; the processing unit is further configured to verify the first digital signature according to at least the first identifier and the remote profile management command; and the processing unit is further configured to execute the remote profile management command when the verification on the first digital signature succeeds.
A method for testing a hydraulically-actuated device having a housing defining an interior volume and a piston disposed within the interior volume such that the piston divides the interior volume into a first chamber and a second chamber , where the piston is movable relative to the housing to a maximum first position in response to pressure within the second chamber being higher than pressure within the first chamber and to a maximum second position in response to pressure within the first chamber being higher than pressure within the second chamber , characterised by : moving the piston to the first position by varying pressure within at least one of the first chamber and the second chamber such that pressure within the second chamber is higher than pressure within the first chamber ; and while the piston remains in the first position , varying pressure to reduce the force(s) acting on the piston ; and measuring if the pressure within the first or second chamber meets a threshold or target pressure during a pre-determined period of time selected based on a calculated or approximated period of time necessary to detect a leak within the hydraulically-actuated device or a system associated therewith. moving the piston to the first position by varying pressure within at least one of the first chamber and the second chamber such that pressure within the second chamber is higher than pressure within the first chamber ; and while the piston remains in the first position , varying pressure to reduce the force(s) acting on the piston ; and measuring if the pressure within the first or second chamber meets a threshold or target pressure during a pre-determined period of time selected based on a calculated or approximated period of time necessary to detect a leak within the hydraulically-actuated device or a system associated therewith.
A resist underlayer film material used in a multilayer resist method, comprising: (A) at least one compound shown by the following general formula ; and (B) an organic solvent, wherein X independently represents a monovalent organic group shown by the following general formula ; W represents an organic group with a valency of "n" having 2 to 60 carbon atoms, and containing an "m" number of partial structures each independently shown by the following general formula ; and "m" and "n" each represent an integer of 1 to 10, wherein a broken line represents a bonding arm; Z represents an aromatic group with a valency of (k+1) having 6 to 20 carbon atoms; A represents a single bond or -O-(CH 2 ) p -; "k" represents an integer of 1 to 5; and "p" represents an integer of 1 to 10, wherein broken lines represent bonding arms, and R 01 represents a hydrogen atom or a monovalent organic group having 1 to 10 carbon atoms. (A) at least one compound shown by the following general formula ; and (B) an organic solvent, wherein X independently represents a monovalent organic group shown by the following general formula ; W represents an organic group with a valency of "n" having 2 to 60 carbon atoms, and containing an "m" number of partial structures each independently shown by the following general formula ; and "m" and "n" each represent an integer of 1 to 10, wherein a broken line represents a bonding arm; Z represents an aromatic group with a valency of (k+1) having 6 to 20 carbon atoms; A represents a single bond or -O-(CH 2 ) p -; "k" represents an integer of 1 to 5; and "p" represents an integer of 1 to 10, wherein broken lines represent bonding arms, and R 01 represents a hydrogen atom or a monovalent organic group having 1 to 10 carbon atoms.
A forestry machine comprises at least one cabin , at least one boom and a control arrangement, wherein control arrangement comprises at least one sensor adapted to detect at least one object in the area of at least one predetermined sector , which sector is focused in the area between the cabin and boom end , and which sensor is further adapted to detect at least one of the following: the location data of said detected object on at least two different instants of time, and the speed of said detected object , as well as at least one control unit adapted to determine at least the direction of travel of said detected object in relation to the cabin at two different time instants, at least, on the basis of the detected location information and/or the detected speed of the object , check a need to cause a change in the control of a forest machine by checking a predetermined control criterion in response to the detected direction of movement of the detected object being directed towards the cabin in the area of said predetermined sector , and cause a change in the control of the forest machine in response to the detected direction of movement of the detected object being directed towards the cabin in the area of the predetermined sector and the fulfilling of said at least one predetermined control criterion. at least one sensor adapted to detect at least one object in the area of at least one predetermined sector , which sector is focused in the area between the cabin and boom end , and which sensor is further adapted to detect at least one of the following: the location data of said detected object on at least two different instants of time, and the speed of said detected object , as well as at least one control unit adapted to determine at least the direction of travel of said detected object in relation to the cabin at two different time instants, at least, on the basis of the detected location information and/or the detected speed of the object , check a need to cause a change in the control of a forest machine by checking a predetermined control criterion in response to the detected direction of movement of the detected object being directed towards the cabin in the area of said predetermined sector , and cause a change in the control of the forest machine in response to the detected direction of movement of the detected object being directed towards the cabin in the area of the predetermined sector and the fulfilling of said at least one predetermined control criterion.