mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining parameters for controlling N electric generators at an instant t, said method comprising, for a required power P tot (t) = ∑ N i =1 P i (t) at an instant t with P i (t) the electric power supplied by the electric generator i at the instant t and a reserve power P reseve ( t )≤∑ N i=1 ( P i max - P i (t)) × δ i (t) at an instant t with P i max the maximum power that the electric generator i can develop and δ i (t) the coefficient of activation of the electric generator i which is equal to 1 when said electric generator is on and 0 when said electric generator is off: - a step (2E1) of determining the optimal power P i opt (t) at the instant t associated with each electric generator i so as to minimise the fuel consumption per unit of electrical energy produced sfc t = 1 Ptot t Σ N i = 1 f i P i t × P i t with f i (x) the function giving the fuel consumption of the electric generator i for the electric power x noted as sfc opt ; - a step (2E2) of determining the fuel consumption per unit of electrical energy produced s f c t = 1 Ptot t Σ N i = 1 f i P i t × P i t noted as sfc eq and associated with a balanced distribution of the electric power supplied by each generator, said distribution being such that ∀i ∈ [1,N]; P i (t) ≤ r i P i max with r i the fraction of the maximum power such that ∀I; r i ∈]0,1]; - a step (2E3) of determining the power Pi(t) associated with each generator as a function of the value of sfc eq and sfc opt . - a step (2E1) of determining the optimal power P i opt (t) at the instant t associated with each electric generator i so as to minimise the fuel consumption per unit of electrical energy produced sfc t = 1 Ptot t Σ N i = 1 f i P i t × P i t with f i (x) the function giving the fuel consumption of the electric generator i for the electric power x noted as sfc opt ; - a step (2E2) of determining the fuel consumption per unit of electrical energy produced s f c t = 1 Ptot t Σ N i = 1 f i P i t × P i t noted as sfc eq and associated with a balanced distribution of the electric power supplied by each generator, said distribution being such that ∀i ∈ [1,N]; P i (t) ≤ r i P i max with r i the fraction of the maximum power such that ∀I; r i ∈]0,1]; - a step (2E3) of determining the power Pi(t) associated with each generator as a function of the value of sfc eq and sfc opt .
A device for preparation and supply of a dose of gaseous contrast agent for angiography in an apparatus for injecting said contrast agent, the latter being supplied at a predefined pressure (Ps) from a source , with possible interposition of a pressure regulator , said device comprising: a supply line , set in fluid communication with said source by said pressure regulator , adapted to supply said contrast agent at a supply pressure (Pa), which is substantially constant and lower than the pressure (Ps) provided by said source ; a soft injection bag , set in interruptible fluid communication with said supply line ; said injection bag being also set in interruptible fluid communication with a catheter and being intended to receive a dose of contrast agent coming from said source so as to release it on command into said catheter and inject it into a vascular cavity by means of said catheter; said device being characterized by including pressing means , comprising in turn a clamping device of said injection bag , provided with at least a pair of opposed clamping elements, first clamping element and second clamping element , arranged on opposite sides with respect to the above mentioned injection bag , at least one of said clamping elements being moveable away from and close to each other, and comprising also compression means , designed to act on at least one corresponding clamping element so as to force it close to the opposed clamping element .
Mobile order picking robot for the automatic picking of objects with a vertically oriented lifting mast and a horizontally oriented robot arm (R) which is attached thereto in a height-adjustable manner and which has three juxtaposed arm elements (a1, a2, a3), starting from the lifting mast , which have arm joints with vertical arm joint axes of rotation (A1, A2) and which are connected in an articulated manner to one another via the arm joint axes of rotation (A1, A2), wherein the last arm element (a3) arranged at the outer end of the series is connected via a wrist with a vertical wrist axis of rotation (A3) to a pick-up tool (G), in particular a gripper, for picking up the objects, characterized in that the arm joint axes of rotation (A1, A2) have a coupled arm drive with individual rotary drive ratios and rotational directions which are selected such that with a rotation about the arm joint axes of rotation (A1, A2) a horizontal linear movement of the wrist and thus a linear extension and retraction movement of the robot arm (R) is generated on the wrist axis of rotation (A3), wherein an additional gripper drive is provided, said additional gripper drive being coupled via the arm joint axes of rotation (A1, A2) and with the rotations of the arm joint axes of rotation (A1, A2) generating a compensating rotation of the wrist axis of rotation (A3), which produces an orientation of the pick-up tool (G) independent of the movement of the arm elements (a1, a2, a3), wherein the gripper drive is configured as a belt drive and the gripper drive which is configured as belt drive has belt wheels (GS1, GS2, GS3) which are arranged concentrically to the arm joint axes of rotation (A1, A2) and to the wrist axis of rotation (A3) and are connected together via belts, wherein all of the belt wheels (GS1, GS2, GS3) have the same diameter, and in that the first belt wheel (GS1) is arranged concentrically to the first arm joint axis of rotation (A1) and is connected fixedly in terms of rotation to the preceding first arm element (a1) which is located closest to the lifting mast , and the last belt wheel (GS3) is arranged concentrically to the wrist axis of rotation (A3) and is connected fixedly in terms of rotation to the pick-up tool (G), while the belt wheel (GS2) which is arranged on the arm joint axis of rotation (A2) located therebetween is rotatably mounted so that this belt wheel can freely rotate both relative to the respectively preceding arm element (a2) and also relative to the respectively following arm element (a3).
A controller for controlling inflation and deflation of at least one bladder of a compression garment to provide compression therapy treatment to a wearer of the compression garment , the controller comprising a memory , one or more processors , and a non-transitory, computer-readable storage medium; characterised in that the computer-readable storage medium includes computer-executable instructions for causing the one or more processors to: receive, during a static pressure period, from a pressure sensor , a signal indicative of fluid pressure in the at least one bladder of the compression garment ; determine whether the received signal includes a representation of a pulse of the wearer; and based at least in part on the determination of whether the received signal includes a signal indicative of the pulse of the wearer, estimate a blood pressure of the wearer of the compression garment based on the pressure received by the pressure sensor only during the static pressure period. receive, during a static pressure period, from a pressure sensor , a signal indicative of fluid pressure in the at least one bladder of the compression garment ; determine whether the received signal includes a representation of a pulse of the wearer; and based at least in part on the determination of whether the received signal includes a signal indicative of the pulse of the wearer, estimate a blood pressure of the wearer of the compression garment based on the pressure received by the pressure sensor only during the static pressure period.
A dried, stabilized composite material, comprising: a support member, comprising a plurality of pores extending through the support member; a macroporous cross-linked gel, comprising a plurality of macropores; a protein covalently bonded to the macroporous cross-linked gel, wherein the protein is protein A; and a stabilizing agent comprising polyethylene glycol, glucose, glycerol or sucrose; wherein the macroporous cross-linked gel is located in the pores of the support member; and the average pore diameter of the macropores is less than the average pore diameter of the pores. a support member, comprising a plurality of pores extending through the support member; a macroporous cross-linked gel, comprising a plurality of macropores; a protein covalently bonded to the macroporous cross-linked gel, wherein the protein is protein A; and a stabilizing agent comprising polyethylene glycol, glucose, glycerol or sucrose; wherein the macroporous cross-linked gel is located in the pores of the support member; and the average pore diameter of the macropores is less than the average pore diameter of the pores.
An electrode unit for inert gas welding by means of a non-melting electrode with an electrode holder and an electrode held firmly and non-detachably in the electrode holder , having an electrode tip at a front end and projecting with the front end having the electrode tip at a first longitudinal end of the electrode holder beyond the electrode holder , characterised in that in that a gas guide channel is formed in the electrode holder with an inlet opening located towards a second longitudinal end opposite the first longitudinal end of the electrode holder and at least one outlet opening facing transversely to a longitudinal extent of the electrode holder and located offset from the inlet opening as seen in the direction of the longitudinal extent towards the first longitudinal end .
A refrigerator comprising: a main body including an inner case forming storage chambers therein; doors to open and close the storage chambers ; shelves and stopper members ; support ribs provided on both side walls of the storage chambers so as to support both sides of the shelves , each support rib including a front rib , a rear rib , and a latch groove provided between the front rib and the rear rib such that each stopper member is inserted into the latch groove ; and inclination prevention ribs , each of which is provided above the rear rib and is configured to support the upper surface of each shelf to prevent each shelf seated on the support ribs from being inclined forward, characterized in that each shelf includes a tempered glass panel on which food is placed and that said stopper members are provided at both sides of the lower surface of the tempered glass panel wherein a length (L) of the inclination prevention ribs corresponds to a length of the latch grooves . a main body including an inner case forming storage chambers therein; doors to open and close the storage chambers ; shelves and stopper members ; support ribs provided on both side walls of the storage chambers so as to support both sides of the shelves , each support rib including a front rib , a rear rib , and a latch groove provided between the front rib and the rear rib such that each stopper member is inserted into the latch groove ; and inclination prevention ribs , each of which is provided above the rear rib and is configured to support the upper surface of each shelf to prevent each shelf seated on the support ribs from being inclined forward, characterized in that each shelf includes a tempered glass panel on which food is placed and that said stopper members are provided at both sides of the lower surface of the tempered glass panel wherein a length (L) of the inclination prevention ribs corresponds to a length of the latch grooves .
A kit for measuring a measurement target substance in a biological sample, the kit comprising: a labeled particle having a first binding substance capable of binding to a measurement target substance and having a first blocking agent; and a substrate having a second binding substance capable of binding to any one of the measurement target substance or the first binding substance and having a second blocking agent, wherein the labeled particle is a luminescent labeled particle containing at least one kind of compound represented by Formula and a particle, and the first blocking agent and the second blocking agent are different from each other, in Formula , Y 1 and Y 2 each represent a fluorine atom,; R 3 represents a hydrogen atom; Ar 3 and Ar 4 each independently represent an aryl group, each of which may have a substituent; R 4 to R 11 each independently represent a hydrogen atom or an aryl group wherein the aryl groups may have a substituent; and at least one of R 4 , ..., or R 7 represents an aryl group which may have a substituent, and at least one of R 8 , ..., or R 11 represents an aryl group which may have a substituent. a labeled particle having a first binding substance capable of binding to a measurement target substance and having a first blocking agent; and a substrate having a second binding substance capable of binding to any one of the measurement target substance or the first binding substance and having a second blocking agent, wherein the labeled particle is a luminescent labeled particle containing at least one kind of compound represented by Formula and a particle, and the first blocking agent and the second blocking agent are different from each other, in Formula , Y 1 and Y 2 each represent a fluorine atom,; R 3 represents a hydrogen atom; Ar 3 and Ar 4 each independently represent an aryl group, each of which may have a substituent; R 4 to R 11 each independently represent a hydrogen atom or an aryl group wherein the aryl groups may have a substituent; and at least one of R 4 , ..., or R 7 represents an aryl group which may have a substituent, and at least one of R 8 , ..., or R 11 represents an aryl group which may have a substituent.
A filter element comprising: a fluted filter media pack having a face sheet and a fluted sheet secured together to provide a plurality of flutes, wherein the first flutes are closed proximate an inlet face and the second flutes are closed proximate an outlet face ; and an axial seal gasket assembly comprising an axial seal member and a media pack seal member and a frame , wherein the axial seal member is carried by an axial seal support portion of the frame and the axial seal member is molded independent of the media pack seal member , wherein the frame is attached and secured to the fluted filter media pack by the media pack seal member , wherein the axial seal member is formed of a first polymeric material and the media pack seal member is formed of a second polymeric material, wherein the first polymeric material is softer than the second polymeric material. a fluted filter media pack having a face sheet and a fluted sheet secured together to provide a plurality of flutes, wherein the first flutes are closed proximate an inlet face and the second flutes are closed proximate an outlet face ; and an axial seal gasket assembly comprising an axial seal member and a media pack seal member and a frame , wherein the axial seal member is carried by an axial seal support portion of the frame and the axial seal member is molded independent of the media pack seal member , wherein the frame is attached and secured to the fluted filter media pack by the media pack seal member , wherein the axial seal member is formed of a first polymeric material and the media pack seal member is formed of a second polymeric material, wherein the first polymeric material is softer than the second polymeric material.
A method performed by a station, STA, the method comprising: receiving, from an access point, AP, a trigger frame that solicits an Uplink Orthogonal Frequency-Divisional Multiple Access, UL OFDMA, transmission from the STA, wherein the trigger frame indicates one or more sub-bands that are allowed for overlapping basic service set spatial reuse, OBSS SR, by one or more OBSS STAs; and transmitting, in response to the trigger frame, to the AP, a physical, PHY, layer preamble that includes a signal field indicating the one or more sub-bands and one or more power thresholds associated with the one or more sub-bands allowed for OBSS SR by one or more OBSS STAs. receiving, from an access point, AP, a trigger frame that solicits an Uplink Orthogonal Frequency-Divisional Multiple Access, UL OFDMA, transmission from the STA, wherein the trigger frame indicates one or more sub-bands that are allowed for overlapping basic service set spatial reuse, OBSS SR, by one or more OBSS STAs; and transmitting, in response to the trigger frame, to the AP, a physical, PHY, layer preamble that includes a signal field indicating the one or more sub-bands and one or more power thresholds associated with the one or more sub-bands allowed for OBSS SR by one or more OBSS STAs.
A roller bearing arrangement for supporting parts of an energy system with at least two elements which are arranged concentrically to each other as well as at least section-wise arranged within each other, annular and counter-rotatable for connection to counter-rotatable parts of the energy system, wherein two counter-rotatable connecting elements are separated from each other by a gap and overlap each other in the radial direction at least partially, wherein furthermore at least two rows of ball-shaped rolling elements are provided in the area of a gap in the radially overlapping areas of the annular connecting elements , each of which rolling along two races with concave cross-section, which at least section-wise overlap in the radial direction, wherein several races for the ball-shaped rolling elements are arranged in radially overlapping sections in such a manner that the bearing or contact angle which is included by the connecting line between the centres of the contact points of a rolling element with its two races relative to the annular plane is equal or greater than 45° so that such an axial rolling bearing serves to transmit mainly axially acting force components, and wherein at least one additional bearing is provided for transmitting mainly radially action force components whose resulting bearing or contact angle is smaller than 45°, characterised in that no races for radial roller bearings are machined into the connecting elements , and wherein at least two rows of ball-shaped rolling elements are provided as well as at least one plain bearing, wherein the plain bearing comprises a sliding element which is accommodated in a groove-shaped recess of an inner one of the connecting elements which are arranged within each other, which is located between the two rows of ball-shaped rolling elements which roll off within the gap along races which are overlapping each other in the axial direction.
A mixing device comprising a mixing container for receiving mixing material and a mixer cover , wherein a first seal is provided between the mixing container and the mixer cover , wherein there is a mixer stand and the mixing container is mounted rotatably about an axis of rotation with respect to the mixer stand and the mixing device has a drive with which the mixing container can be rotated about the axis of rotation, wherein the mixer cover is fixed to the mixer stand, characterised in that there is provided a second seal between the mixing container and the mixer cover and the first and the second seal are so arranged that a first air space is formed between the first and the second seal.
Method for production of an ultra-thin steel strip with an austenitic and/or ferritic microstructure and a thickness of less than 0.8 millimetres, wherein initially in a casting direction a raw steel strip with a thickness in the range of 1.50 to 4.0 millimetres is continuously cast and then directly hot rough-rolled in the austenitic and/or ferritic structural range, preferably above a temperature of at least 700° C and by means of at least one hot-rolling stand coupled to the casting device , to form the steel strip , characterised in that the hot rough-rolled steel strip is hot-rolled austenitically and/or ferritically to finished state by way of at least one rolling module , which comprises a cooling device , a heating device and a hot-rolling stand in that sequence and which is arranged directly after the hot-rolling stand coupled to the casting device , to form the ultra-thin steel strip .
A resin structure having an impact absorbing property, comprising: a resin member including a resin material and having an uneven thickness structure, wherein the resin member includes a thick-walled portion having an average thickness of a first value in an impact absorbing direction (X) and two thin-walled portions having an average thickness of less than the first value in the impact absorbing direction (X), the overall shape of the resin member is convex into the impact absorbing direction (X), the thick-walled portion is disposed between the two thin-walled portions , one thin-walled portion , the thick-walled portion , and the other thin-walled portion are disposed in that order in a direction (Y) perpendicular to the impact absorbing direction (X), and the following Expressions (I) and (II) are satisfied, 1 < t 1 / t 2 < 1.545 × L / d − 0.107 L / d > 0 wherein t1 represents an average thickness (mm) of the thick-walled portion , t2 represents an average thickness (mm) of the thin-walled portions , L represents an inter-connection-point distance (mm) between connection points which are formed on the two thin-walled portions , respectively, and are connected to other structures, and d represents a maximum height (mm) in the impact absorbing direction in a range between the connection points of the resin member . a resin member including a resin material and having an uneven thickness structure, wherein the resin member includes a thick-walled portion having an average thickness of a first value in an impact absorbing direction (X) and two thin-walled portions having an average thickness of less than the first value in the impact absorbing direction (X), the overall shape of the resin member is convex into the impact absorbing direction (X), the thick-walled portion is disposed between the two thin-walled portions , one thin-walled portion , the thick-walled portion , and the other thin-walled portion are disposed in that order in a direction (Y) perpendicular to the impact absorbing direction (X), and the following Expressions (I) and (II) are satisfied, 1 < t 1 / t 2 < 1.545 × L / d − 0.107 L / d > 0 wherein t1 represents an average thickness (mm) of the thick-walled portion , t2 represents an average thickness (mm) of the thin-walled portions , L represents an inter-connection-point distance (mm) between connection points which are formed on the two thin-walled portions , respectively, and are connected to other structures, and d represents a maximum height (mm) in the impact absorbing direction in a range between the connection points of the resin member .