mhurhangee/patent-ind-claim-en huggingface dataset:
System for administration of medicaments for a patient comprising: - at least one supply device to supply liquid medicaments and liquid nutrients; - a first measurement device to measure urine values of the urine of a patient ; - a first analysis device to analyse the measured urine values ; and - a first calculation device to calculate first medicament parameters of the medicaments to be administered to the respective patient on the basis of the analysed, measured urine values ; - a second measurement device to measure the quantity of urine eliminated by the patient ; - a second analysis device to analyse the urine quantity measured; and - a second calculation device to calculate a fluid balance of the body of the patient from the quantity of urine eliminated and from a quantity of the liquid medicaments and liquid nutrients supplied by the at least one supply device , and to calculate second medicament parameters from the calculated fluid balance; wherein - the at least one supply device supplies the liquid medicaments with an infusion rate set on the basis of common medicament parameters calculated on the basis of at least the first medicament parameters and the second medicament parameters. - at least one supply device to supply liquid medicaments and liquid nutrients; - a first measurement device to measure urine values of the urine of a patient ; - a first analysis device to analyse the measured urine values ; and - a first calculation device to calculate first medicament parameters of the medicaments to be administered to the respective patient on the basis of the analysed, measured urine values ; - a second measurement device to measure the quantity of urine eliminated by the patient ; - a second analysis device to analyse the urine quantity measured; and - a second calculation device to calculate a fluid balance of the body of the patient from the quantity of urine eliminated and from a quantity of the liquid medicaments and liquid nutrients supplied by the at least one supply device , and to calculate second medicament parameters from the calculated fluid balance; wherein - the at least one supply device supplies the liquid medicaments with an infusion rate set on the basis of common medicament parameters calculated on the basis of at least the first medicament parameters and the second medicament parameters.
A method for wireless communication at a user equipment, UE, comprising: receiving signaling indicating a first traffic-to-pilot power ratio, TPR for a base layer for a non-orthogonal channel and a second TPR for an enhancement layer for the non-orthogonal channel; receiving at least a portion of a reference signal transmitted over the non-orthogonal channel; and estimating channel quality for the base layer or the enhancement layer based at least in part on an energy level of the received reference signal and one or more of the first TPR or the second TPR. receiving signaling indicating a first traffic-to-pilot power ratio, TPR for a base layer for a non-orthogonal channel and a second TPR for an enhancement layer for the non-orthogonal channel; receiving at least a portion of a reference signal transmitted over the non-orthogonal channel; and estimating channel quality for the base layer or the enhancement layer based at least in part on an energy level of the received reference signal and one or more of the first TPR or the second TPR.
A device for mitigating vibrations of a blade of a wind turbine during standstill, the device comprising: a flexible base having a first connection area and a second connection area, the first connection area being configured to be attached to the second connection area to form a removable attachment, and one or more airflow modifying elements attached to the flexible base, wherein the flexible base is configured to fit around a portion of the rotor blade such that the removable attachment is positioned substantially at a leading edge of the blade. a flexible base having a first connection area and a second connection area, the first connection area being configured to be attached to the second connection area to form a removable attachment, and one or more airflow modifying elements attached to the flexible base, wherein the flexible base is configured to fit around a portion of the rotor blade such that the removable attachment is positioned substantially at a leading edge of the blade.
A method for forming a lignin fraction from crude lignin which has been formed by processing by means of a treatment step selected from enzymatic treatment, treatment with ionic liquid and their combinations, wherein the method comprises - treating the crude lignin by a lignin liberation in at least one lignin liberation step in which the crude lignin is treated such that the lignin is liberated by means of a hydrothermal treatment or a dilute acid hydrolysis, and - separating a lignin fraction in at least one solid-solid separation step. - treating the crude lignin by a lignin liberation in at least one lignin liberation step in which the crude lignin is treated such that the lignin is liberated by means of a hydrothermal treatment or a dilute acid hydrolysis, and - separating a lignin fraction in at least one solid-solid separation step.
A cab-over engine truck having a longitudinal direction (L), as seen in a normal forward direction of movement of the cab-over engine truck , the cab-over engine truck comprising: a front side (F) comprising a front grille ; a chassis (C) comprising two parallel frame beams extending in the longitudinal direction (L); an engine compartment (E); and a driver cabin at least partially positioned over the engine compartment (E); the driver cabin comprising: a dashboard ; a driver side A-pillar and a co-driver side A-pillar ; a front windscreen frame in which a front windscreen is mounted, the front windscreen frame having a lower front windscreen frame part ; a firewall positioned in vertical direction below the front windscreen , the firewall extending between and is connected to a lower part of the driver side A-pillar and to a lower part of the co-driver side A-pillar ; wherein a front end of the lower front windscreen frame part is positioned in front of the firewall as seen in the normal forward direction of movement of the cab-over engine truck ; characterized in that the front grille is positioned at a distance between 150 mm and 250 mm in front of the firewall as seen in the normal forward direction of movement of the cab-over engine truck ; and in that the cab-over engine truck comprises crash boxes arranged in front of the two parallel frame beams of the chassis (C), the firewall being positioned between the crash boxes and the two parallel frame beams of the chassis (C). a front side (F) comprising a front grille ; a chassis (C) comprising two parallel frame beams extending in the longitudinal direction (L); an engine compartment (E); and a driver cabin at least partially positioned over the engine compartment (E); the driver cabin comprising: a dashboard ; a driver side A-pillar and a co-driver side A-pillar ; a front windscreen frame in which a front windscreen is mounted, the front windscreen frame having a lower front windscreen frame part ; a dashboard ; a driver side A-pillar and a co-driver side A-pillar ; a front windscreen frame in which a front windscreen is mounted, the front windscreen frame having a lower front windscreen frame part ; a firewall positioned in vertical direction below the front windscreen , the firewall extending between and is connected to a lower part of the driver side A-pillar and to a lower part of the co-driver side A-pillar ; wherein a front end of the lower front windscreen frame part is positioned in front of the firewall as seen in the normal forward direction of movement of the cab-over engine truck ; characterized in that the front grille is positioned at a distance between 150 mm and 250 mm in front of the firewall as seen in the normal forward direction of movement of the cab-over engine truck ; and in that the cab-over engine truck comprises crash boxes arranged in front of the two parallel frame beams of the chassis (C), the firewall being positioned between the crash boxes and the two parallel frame beams of the chassis (C).
A method for tuning a system that comprises intervened Proportional Integral Derivative, PID, control loops, the method comprising: 1.1 receiving a performance objective of the system; 1.2 generating a collection of values respectively corresponding to a plurality of parameters of the intervened control loops, the collection of values for the parameters generated based on stored information that comprises a stored velocity and a stored position; 1.3 evaluating the collection of values for the parameters of the intervened control loops, wherein the evaluating comprises: 1.3.1 determining a performance measure of the system using the collection of values; and 1.3.2 comparing the performance measure and the performance objective of the system; 1.4 in response to a determination that a difference between the performance objective and the performance measure exceeds a predetermined threshold, updating the stored information by storing the collection of values as a stored collection of values for the parameters; and 1.5 in response to a predetermined termination condition being satisfied, configuring the intervened control loops according to the stored information for the parameters; wherein the method uses 1.6 a PID control tuning which couples a Gain-Phase Margin method with a Particle Swamp Optimization (PSO) algorithm. 1.1 receiving a performance objective of the system; 1.2 generating a collection of values respectively corresponding to a plurality of parameters of the intervened control loops, the collection of values for the parameters generated based on stored information that comprises a stored velocity and a stored position; 1.3 evaluating the collection of values for the parameters of the intervened control loops, wherein the evaluating comprises: 1.3.1 determining a performance measure of the system using the collection of values; and 1.3.2 comparing the performance measure and the performance objective of the system; 1.3.1 determining a performance measure of the system using the collection of values; and 1.3.2 comparing the performance measure and the performance objective of the system; 1.4 in response to a determination that a difference between the performance objective and the performance measure exceeds a predetermined threshold, updating the stored information by storing the collection of values as a stored collection of values for the parameters; and 1.5 in response to a predetermined termination condition being satisfied, configuring the intervened control loops according to the stored information for the parameters; wherein the method uses 1.6 a PID control tuning which couples a Gain-Phase Margin method with a Particle Swamp Optimization (PSO) algorithm.
A polypeptide comprising two immunoglobulin single variable domain (ISVD) against von Willebrand Factor (vWF) for use in treating thrombotic thrombocytopenic purpura (TTP) in a human in need thereof suffering from an acute episode of TTP, (A) comprising: (i) performing a Plasma Exchange (preceding PE); and followed by (ii) administering a first dose of 1-80 mg, such as 5-40 mg or preferably 10 mg of said polypeptide 5 min to 4 h after said PE of step (i), or (B) comprising performing a preceding Plasma Exchange (PE); followed by administering to said human a first dose of 1-80 mg, such as 5-40 mg, preferably 10 mg of said polypeptide; performing a Plasma Exchange (PE) administering a further dose of 1-80 mg, such as 5-40 mg, preferably 10 mg of said polypeptide repeating step and step once per day, wherein the term "first dose" means the first administration of the polypeptide to the human in need thereof suffering from an acute episode of TTP. (A) comprising: (i) performing a Plasma Exchange (preceding PE); and followed by (ii) administering a first dose of 1-80 mg, such as 5-40 mg or preferably 10 mg of said polypeptide 5 min to 4 h after said PE of step (i), or (i) performing a Plasma Exchange (preceding PE); and followed by (ii) administering a first dose of 1-80 mg, such as 5-40 mg or preferably 10 mg of said polypeptide 5 min to 4 h after said PE of step (i), or (B) comprising performing a preceding Plasma Exchange (PE); followed by administering to said human a first dose of 1-80 mg, such as 5-40 mg, preferably 10 mg of said polypeptide; performing a Plasma Exchange (PE) administering a further dose of 1-80 mg, such as 5-40 mg, preferably 10 mg of said polypeptide repeating step and step once per day, wherein the term "first dose" means the first administration of the polypeptide to the human in need thereof suffering from an acute episode of TTP. performing a preceding Plasma Exchange (PE); followed by administering to said human a first dose of 1-80 mg, such as 5-40 mg, preferably 10 mg of said polypeptide; performing a Plasma Exchange (PE) administering a further dose of 1-80 mg, such as 5-40 mg, preferably 10 mg of said polypeptide repeating step and step once per day,
A sheet manufacturing apparatus comprising: a defibrating unit that defibrates a raw material containing a fiber in air; a mixing unit that mixes a defibrated material defibrated by the defibrating unit and a resin in air; a web forming unit that forms a web by accumulating the mixture mixed by the mixing unit on a moving body ; a transporting unit that transports the web; a sheet forming unit that forms a sheet from the web; a setting unit that sets a thickness of the sheet; and a controller that controls a moving speed of the moving body and a transporting speed of the web transported by the transporting unit , in accordance with the thickness of the sheet set by the setting unit . a defibrating unit that defibrates a raw material containing a fiber in air; a mixing unit that mixes a defibrated material defibrated by the defibrating unit and a resin in air; a web forming unit that forms a web by accumulating the mixture mixed by the mixing unit on a moving body ; a transporting unit that transports the web; a sheet forming unit that forms a sheet from the web; a setting unit that sets a thickness of the sheet; and a controller that controls a moving speed of the moving body and a transporting speed of the web transported by the transporting unit , in accordance with the thickness of the sheet set by the setting unit .
A vibration drive train for making a screed body of a screed device of a paver vibrate, the vibration drive train comprising: - a rotatable vibration shaft extending along a rotational axis (A) between a first shaft end and a second shaft end , wherein the vibration shaft comprises an unbalance mass for generating a vibration arranged between the first and second shaft ends , - a torsionally stiff tubular bearing housing , wherein the vibration shaft extends through the tubular bearing housing , and wherein the tubular bearing housing is adapted to be firmly attached to the screed body , - a first ball bearing unit and second ball bearing unit arranged inside the tubular bearing housing spaced apart along the rotational axis (A), wherein the first and second bearing unit are adapted for rotatably bearing the vibration shaft towards the tubular bearing housing . - a rotatable vibration shaft extending along a rotational axis (A) between a first shaft end and a second shaft end , wherein the vibration shaft comprises an unbalance mass for generating a vibration arranged between the first and second shaft ends , - a torsionally stiff tubular bearing housing , wherein the vibration shaft extends through the tubular bearing housing , and wherein the tubular bearing housing is adapted to be firmly attached to the screed body , - a first ball bearing unit and second ball bearing unit arranged inside the tubular bearing housing spaced apart along the rotational axis (A), wherein the first and second bearing unit are adapted for rotatably bearing the vibration shaft towards the tubular bearing housing .
An in-wheel motor drive device , comprising: a wheel hub bearing unit having an outer ring that rotates with a wheel (W), an inner fixing member disposed inside the outer ring , and a plurality of rolling elements disposed in annular clearance between the outer ring and the inner fixing member ; a motor unit that drives the outer ring ; and a hub carrier coupled to the inner fixing member , wherein a casing accommodating a drive transmission path from the motor unit to the outer ring includes a tubular body first casing disposed on one side in an axial direction (O) of the wheel hub bearing unit and a tubular body second casing disposed on the other side in the axial direction of the wheel hub bearing unit , each of the body first casing and the body second casing has an annular abutting surface so that the annular abutting surfaces of the body first casing and the body second casing abut on each other in the axial direction (O), the hub carrier extends so as to protrude in a form of an arm from an end of the inner fixing member which is located on the other side in the axial direction (O) and to face at an interval an outer wall surface of the body second casing , and has at its tip end a connecting portion for rotatable connection to a vehicle body-side member , and the connecting portion is disposed so as not to overlap the abutting surfaces in the axial direction (O) of the wheel hub bearing unit and so as to overlap the body first casing or the body second casing in the axial direction of the wheel hub bearing unit . a wheel hub bearing unit having an outer ring that rotates with a wheel (W), an inner fixing member disposed inside the outer ring , and a plurality of rolling elements disposed in annular clearance between the outer ring and the inner fixing member ; a motor unit that drives the outer ring ; and a hub carrier coupled to the inner fixing member , wherein a casing accommodating a drive transmission path from the motor unit to the outer ring includes a tubular body first casing disposed on one side in an axial direction (O) of the wheel hub bearing unit and a tubular body second casing disposed on the other side in the axial direction of the wheel hub bearing unit , each of the body first casing and the body second casing has an annular abutting surface so that the annular abutting surfaces of the body first casing and the body second casing abut on each other in the axial direction (O), the hub carrier extends so as to protrude in a form of an arm from an end of the inner fixing member which is located on the other side in the axial direction (O) and to face at an interval an outer wall surface of the body second casing , and has at its tip end a connecting portion for rotatable connection to a vehicle body-side member , and the connecting portion is disposed so as not to overlap the abutting surfaces in the axial direction (O) of the wheel hub bearing unit and so as to overlap the body first casing or the body second casing in the axial direction of the wheel hub bearing unit .
A method for creating access to a wireless communication device which is enabled to operate in a Body Area Network, BAN, comprising the steps of: detecting (S1) the presence of a user's body by using a BAN enabled access module comprised in said wireless communication device ; collecting (S2) a biometric data of said user by using a scanner comprised in said BAN enabled access module ; receiving (S4) authentication data by using said BAN enabled access module through BAN from a BAN enabled peripheral device ; and allowing (S5) access to said wireless communication device if said collected biometric data and said received authentication data are valid. detecting (S1) the presence of a user's body by using a BAN enabled access module comprised in said wireless communication device ; collecting (S2) a biometric data of said user by using a scanner comprised in said BAN enabled access module ; receiving (S4) authentication data by using said BAN enabled access module through BAN from a BAN enabled peripheral device ; and allowing (S5) access to said wireless communication device if said collected biometric data and said received authentication data are valid.
A coffee dispenser system, comprising a coffee brewer unit , a container and a coffee supply channel between the coffee brewer unit and the container to provide a fluid connection between the coffee brewer unit and the container for receiving and holding coffee from the coffee brewer unit , and an outlet channel for coffee which is connected to the container , wherein the coffee supply channel and the outlet channel for coffee both connect to the container at a bottom side of the container , and the coffee supply channel that connects to the container extends upwardly inside the container up to a highest level, characterized in that at said highest level an air relief chamber is provided to release air from the coffee transported through the coffee supply channel , and that from the air relief chamber a coffee mix channel extends downwardly to above and near to the bottom of the container .
A lens-group moving apparatus (X1, X2, X3, X4) for moving, in an optical system (LN) including a plurality of lenses, a lens group (L1, L2, L3) including at least one lens among the plurality of lenses, the lens-group moving apparatus (X1, X2, X3, X4) comprising: a moving lens frame that is configured to hold the lens group (L1, L2, L3); a fixed cylinder that is configured to hold the moving lens frame movably in an optical axis (AX) direction; a moving frame movable in the optical axis (AX) direction to change a relative position with respect to the fixed cylinder ; a moving structure that is configured to act to cause the moving frame to move in the optical axis (AX) direction; an intermediate member that is configured to transmit a movement of the moving frame to the moving lens frame , in a state of being in contact with the moving frame and with the moving lens frame , one end of the intermediate member being in contact with the moving frame and the other end of the intermediate member being in contact with the moving lens frame ; an urging member that is configured to urge the moving lens frame in a direction of the intermediate member , the urging member being a compression spring; and a lens frame that is configured to hold a lens group including at least one lens among lenses not included in the lens group (L1, L2, L3) held by the moving lens frame , and is positioned between the moving frame and the moving lens frame , wherein the lens frame has a hole passing through in the optical axis (AX) direction, and the intermediate member passes through the hole . a moving lens frame that is configured to hold the lens group (L1, L2, L3); a fixed cylinder that is configured to hold the moving lens frame movably in an optical axis (AX) direction; a moving frame movable in the optical axis (AX) direction to change a relative position with respect to the fixed cylinder ; a moving structure that is configured to act to cause the moving frame to move in the optical axis (AX) direction; an intermediate member that is configured to transmit a movement of the moving frame to the moving lens frame , in a state of being in contact with the moving frame and with the moving lens frame , one end of the intermediate member being in contact with the moving frame and the other end of the intermediate member being in contact with the moving lens frame ; an urging member that is configured to urge the moving lens frame in a direction of the intermediate member , the urging member being a compression spring; and a lens frame that is configured to hold a lens group including at least one lens among lenses not included in the lens group (L1, L2, L3) held by the moving lens frame , and is positioned between the moving frame and the moving lens frame , wherein the lens frame has a hole passing through in the optical axis (AX) direction, and the intermediate member passes through the hole .