mhurhangee/ep-ind-claims huggingface dataset:
A membrane pump (100; 101) comprising: - a pump body having a working chamber; - a head, having a distribution chamber, said pump body and said head being coupled at a coupling surface to delimit a pumping chamber formed between a terminal wall of said pump body and a terminal wall of said head; and - at least one membrane positioned, or positionable, in said pumping chamber, at said coupling surface, configured to separate said working chamber from said distribution chamber, said membrane being shaped to be moved by means of a fluid contained in said working chamber, from a suction configuration to a delivery configuration within said pumping chamber, said pump (100; 101) further comprising a sealing device (7; 70) coupled, or coupable, to said membrane, wherein said sealing device (7; 70) is configured to: abut with an outlet mouth of said working chamber at said suction configuration of the membrane, in a manner such as to seal the area of a first interspace comprised between said terminal wall of said pump body and a bending portion of said membrane, said bending portion being a membrane portion comprised between said sealing device (7; 70) and said coupling surface, said bending portion being a membrane portion which, during an operating condition of the pump, is exposed on both sides, respectively, to the working fluid and the pumping fluid, wherein the fluid contained in said first interspace cannot be forced out from said first interspace and thereby supports said bending portion of the membrane, therefore said interspace spaces said bending portion from said terminal wall of said pump body at said suction configuration of the membrane; and/or to abut with an inlet mouth of said distribution chamber at said delivery configuration of the membrane, in a manner such as to seal an area of a second interspace (C') comprised between said terminal wall of said head and said bending portion of the membrane, wherein the fluid contained in said second interspace (C') supports said bending portion of the membrane which is not in contact with said terminal wall of said head at said delivery configuration of the membrane. - a pump body having a working chamber; - a head, having a distribution chamber, said pump body and said head being coupled at a coupling surface to delimit a pumping chamber formed between a terminal wall of said pump body and a terminal wall of said head; and - at least one membrane positioned, or positionable, in said pumping chamber, at said coupling surface, configured to separate said working chamber from said distribution chamber, said membrane being shaped to be moved by means of a fluid contained in said working chamber, from a suction configuration to a delivery configuration within said pumping chamber,
Mobile system for separating donor blood by means of gravitational force into erythrocyte concentrate and plasma, having a first bag serving as a reservoir for the blood to be separated and at least a second and third bag (4, 5) for respectively receiving erythrocyte concentrate and plasma, and also multiple tubes for connecting the flexible bags consisting of plastic material to a separator module having a separating membrane in the form of a bundle of hollow fibers, characterized in that the system is divided into at least one first and one second sterilely packaged, individual subsystem, the at least one first subsystem comprises the individual bags (1, 4, 5) and associated connection tubes, and the second subsystem comprises the separator module, and male/female connectors (8, 17; 20, 18; 10, 23), in particular Luer-lock connectors, are provided for connecting the tubes to the separator module, one part of said connectors being fixed or integrated in the housing of the separator module and the complementary part of said connectors being connected to the end of the respective tube.
An electric grill, comprising: a first knob, a second knob, and a display mounted on a housing; a power cable connected to a voltage line and a neutral line; a first heating element and a second heating element inside the housing, the first heating element being connected to the voltage line and the neutral line, and the second heating element being connected to the voltage line and the neutral line; a first triac and a second triac connected between the voltage line and the first heating element and the second heating element, respectively; a first triac driver and a second triac driver respectively connected to the first triac and the second triac; a zero crossing detection unit configured to detect zero crossings of AC current in the voltage line; and a microprocessor in communication with the first knob, the second knob, the first triac driver, the second triac driver, and the zero crossing detection unit, wherein the microprocessor is further to communicate with a memory, and wherein the microprocessor is to use a clock signal to (a) cause delivery of a first phase-controlled AC wave based on a first power array of values stored in the memory and (b) cause delivery of a second phase-controlled AC wave based on a second power array of values stored in the memory. a first knob, a second knob, and a display mounted on a housing; a power cable connected to a voltage line and a neutral line; a first heating element and a second heating element inside the housing, the first heating element being connected to the voltage line and the neutral line, and the second heating element being connected to the voltage line and the neutral line; a first triac and a second triac connected between the voltage line and the first heating element and the second heating element, respectively; a first triac driver and a second triac driver respectively connected to the first triac and the second triac; a zero crossing detection unit configured to detect zero crossings of AC current in the voltage line; and a microprocessor in communication with the first knob, the second knob, the first triac driver, the second triac driver, and the zero crossing detection unit, wherein the microprocessor is further to communicate with a memory, and wherein the microprocessor is to use a clock signal to (a) cause delivery of a first phase-controlled AC wave based on a first power array of values stored in the memory and (b) cause delivery of a second phase-controlled AC wave based on a second power array of values stored in the memory.
Crop lifter for a mower of a harvesting machine, comprising a support bar attachable on the mower, wherein a lifter rod is connected to the support bar and the support bar has a recess for attachment on the mower, characterised in that a bolting face is worked into the upper face of the support bar around the recess such, that planes, defined by the bolting face and the upper face, enclose an acute angle.
A method for combinatorial coding and decoding, the method comprising the steps of: receiving a value n based on a number of positions in a vector, wherein the number of positions in the vector equals to the number of the elements included in the vector; receiving a value d based on a number of occupied positions in the vector, wherein the number of occupied positions in the vector equals to the number of non-zero elements included in the vector; generating F' ( n,d) based on n and d, wherein F' ( n,d) is an estimate of F ( n,d), such that F' ( n,d)> F ( n,d) and F' ( n,d) > F' ( n- 1,d) + F' ( n- 1,d- 1), and wherein F n, d = n ! d ! n − d ! wherein the step of generating F' ( n,d) comprises the step of generating F ′ n, d = R ′ ∑ i = n − d + 1 n P ′ i − Q ′ d, where P' ( i), Q' ( d), and R' ( k), are approximations of the functions P ( i) = log a ( i), Q d = ∑ j = 1 d log a j, and R ( k) = a k, respectively, where a is arbitrary logarithmic base and k = ∑ i = n − d + 1 n P ′ i − Q ′ d; using F' ( n,d) to code the vector and output a codeword or decode a codeword and output the vector wherein the vector is produced from speech, audio, image or video. receiving a value n based on a number of positions in a vector, wherein the number of positions in the vector equals to the number of the elements included in the vector; receiving a value d based on a number of occupied positions in the vector, wherein the number of occupied positions in the vector equals to the number of non-zero elements included in the vector; generating F' ( n,d) based on n and d, wherein F' ( n,d) is an estimate of F ( n,d), such that F' ( n,d)> F ( n,d) and F' ( n,d) > F' ( n- 1,d) + F' ( n- 1,d- 1), and wherein F n, d = n ! d ! n − d ! wherein the step of generating F' ( n,d) comprises the step of generating F ′ n, d = R ′ ∑ i = n − d + 1 n P ′ i − Q ′ d, where P' ( i), Q' ( d), and R' ( k), are approximations of the functions P ( i) = log a ( i), Q d = ∑ j = 1 d log a j, and R ( k) = a k, respectively, where a is arbitrary logarithmic base and k = ∑ i = n − d + 1 n P ′ i − Q ′ d; using F' ( n,d) to code the vector and output a codeword or decode a codeword and output the vector wherein the vector is produced from speech, audio, image or video.
A respiration gas monitor device, comprising: a pump connected to draw a flow of respired air; a pressure sensor ( 150, 160) connected to measure an air pressure signal responsive to the flow of respired air; a pressure transducer; electrical circuitry ( 170, 180) operatively connected to measure flow across the pressure sensor, wherein the electrical circuity ( 170, 180) is operatively connected to read the pressure sensor and to drive the pressure transducer to inject ripple-canceling pressure pulses into flow of respired air to reduce or eliminate a pressure ripple in the flow of respired air wherein the ripple-canceling pressure pulses are determined by the electrical circuitry from the air pressure signal measured by the pressure sensor; and a gas component sensor ( 190, 192, 194) arranged to monitor a target gas in the flow of respired air. a pump connected to draw a flow of respired air; a pressure sensor ( 150, 160) connected to measure an air pressure signal responsive to the flow of respired air; a pressure transducer; electrical circuitry ( 170, 180) operatively connected to measure flow across the pressure sensor, wherein the electrical circuity ( 170, 180) is operatively connected to read the pressure sensor and to drive the pressure transducer to inject ripple-canceling pressure pulses into flow of respired air to reduce or eliminate a pressure ripple in the flow of respired air wherein the ripple-canceling pressure pulses are determined by the electrical circuitry from the air pressure signal measured by the pressure sensor; and a gas component sensor ( 190, 192, 194) arranged to monitor a target gas in the flow of respired air.
An image processing system for constructing and displaying information relating to an amplitude of displacement of wall regions of a deformable 3D object under study, said image processing system comprising - processing means for segmenting 3D object data in a sequence of 3D ultrasound images for locating a 3D object wall, defining a region of interest on the 3D object wall, processing the image data of the 3D object wall to determine an amplitude of displacement of said region of interest as a function of time, constructing a first 2D simplified representation (20.A) of the 3D object wall by projection of the 3D object wall, said first 2D simplified representation (20.A) comprising a projection of the region of interest, and constructing a second 2D simplified representation (20.B) of the 3D object wall, similar to the first 2D simplified representation of the 3D object wall, and with a similar projection of the region of interest; and - display means for displaying an indication of the maximal or minimal amplitude of displacement of the region of interest of the 3D object wall over a period of time in the projection of said region of interest in said first 2D simplified representation (20.A), displaying an indication of the instant of time, at which the maximum or minimum of amplitude of displacement occurs in the region of interest over said period of time, in said second 2D simplified representation (20.B), and displaying said first 2D simplified representation (20.A) and said second 2D simplified representation (20.B) together in the same image. - processing means for segmenting 3D object data in a sequence of 3D ultrasound images for locating a 3D object wall, defining a region of interest on the 3D object wall, processing the image data of the 3D object wall to determine an amplitude of displacement of said region of interest as a function of time, constructing a first 2D simplified representation (20.A) of the 3D object wall by projection of the 3D object wall, said first 2D simplified representation (20.A) comprising a projection of the region of interest, and constructing a second 2D simplified representation (20.B) of the 3D object wall, similar to the first 2D simplified representation of the 3D object wall, and with a similar projection of the region of interest; and - display means for displaying an indication of the maximal or minimal amplitude of displacement of the region of interest of the 3D object wall over a period of time in the projection of said region of interest in said first 2D simplified representation (20.A), displaying an indication of the instant of time, at which the maximum or minimum of amplitude of displacement occurs in the region of interest over said period of time, in said second 2D simplified representation (20.B), and displaying said first 2D simplified representation (20.A) and said second 2D simplified representation (20.B) together in the same image.
A selective GRP78/Cripto targeting compound for use in treating a hyperproliferative disease, wherein said use comprises inhibiting Cripto signaling in a cancerous, pre-cancerous, or malignant cell to reduce the cell's proliferation by contacting the cell with an amount of said selective GRP78/Cripto targeting compound, wherein said targeting compound is effective to inhibit the formation of complexes between Cripto and GRP78, thereby reducing the cell's proliferation, wherein said targeting compound is an anti-GRP78 antibody that binds an N-20 epitope of the GRP78, wherein said N-20 epitope consists of 20 amino acid residues within the first 50 residues downstream from the GRP78 signal peptide.
A method of coating fertilizer particles with a coating, wherein the method comprises: a) providing fertilizer particles in a coating unit, b) a step of applying a coating layer comprising: - applying one or more coating components to the fertilizer particles in the coating unit to provide coated fertilizer particles comprising a coating layer and the fertilizer particles, - and at least partially curing or hardening the coating layer, wherein said curing or hardening involves a chemical reaction of said one or more coating components, wherein step b) is performed one or more times to provide coated fertilizer particles, and c) discharging the coated fertilizer particles from the coating unit, or performing a final cure or hardening of the coated fertilizer particles in the coating unit and subsequently releasing the fertilizer particles from the coating unit, wherein the discharged fertilizer particles comprise said coating, wherein the coating comprises a polymer, wherein the coating unit comprises a stationary frame and at least two movable elements, wherein said movable elements are independently movable with respect to the frame, and wherein the method comprises moving said at least two movable elements with respect to the frame during at least step b). a) providing fertilizer particles in a coating unit, b) a step of applying a coating layer comprising: - applying one or more coating components to the fertilizer particles in the coating unit to provide coated fertilizer particles comprising a coating layer and the fertilizer particles, - and at least partially curing or hardening the coating layer, wherein said curing or hardening involves a chemical reaction of said one or more coating components, wherein step b) is performed one or more times to provide coated fertilizer particles, and - applying one or more coating components to the fertilizer particles in the coating unit to provide coated fertilizer particles comprising a coating layer and the fertilizer particles, - and at least partially curing or hardening the coating layer, wherein said curing or hardening involves a chemical reaction of said one or more coating components, c) discharging the coated fertilizer particles from the coating unit, or performing a final cure or hardening of the coated fertilizer particles in the coating unit and subsequently releasing the fertilizer particles from the coating unit, wherein the discharged fertilizer particles comprise said coating, wherein the coating comprises a polymer,
A gas turbine engine comprising: a fan shaft driving a fan; a frame which supports said fan shaft; a plurality of gears to drive said fan shaft; a flexible support which at least partially supports said plurality of gears, said flexible support having a lesser stiffness than said frame; a first spool; a first turbine section configured to drive said first spool, said first spool providing a drive input into said plurality of gears; and a second spool; and a second turbine section configured to drive said second spool, wherein said first turbine section has a first exit area at a first exit point and said first spool is configured to rotate at a first speed, said second turbine section has a second exit area at a second exit point and said second spool is configured to rotate at a second speed, which is faster than the first speed, a first performance quantity is defined as the product of the first speed squared and the first exit area and, a second performance quantity is defined as the product of the second speed squared and the second exit area, characterised in that: a ratio of the first performance quantity to the second performance quantity is equal to 0.8 or between 0.8 and 1.5. a fan shaft driving a fan; a frame which supports said fan shaft; a plurality of gears to drive said fan shaft; a flexible support which at least partially supports said plurality of gears, said flexible support having a lesser stiffness than said frame; a first spool; a first turbine section configured to drive said first spool, said first spool providing a drive input into said plurality of gears; and a second spool; and a second turbine section configured to drive said second spool, wherein said first turbine section has a first exit area at a first exit point and said first spool is configured to rotate at a first speed, said second turbine section has a second exit area at a second exit point and said second spool is configured to rotate at a second speed, which is faster than the first speed, a first performance quantity is defined as the product of the first speed squared and the first exit area and, a second performance quantity is defined as the product of the second speed squared and the second exit area, a ratio of the first performance quantity to the second performance quantity is equal to 0.8 or between 0.8 and 1.5.
A filter fabricated using a semiconductor process, comprising: a glass substrate having a plurality of through substrate vias; a plurality of capacitors (C 1 -C 3) supported by the glass substrate, a width of at least one of the plurality of capacitors being less than ten micrometers and a thickness of the at least one capacitor being less than one micrometer; and at least one 3D inductor within the glass substrate, the at least one 3D inductor comprising: a first plurality of traces on a first surface of the glass substrate, coupled to the plurality of through substrate vias; and a second plurality of traces on a second surface of the glass substrate, opposite the first surface, coupled to opposite ends of the plurality of through substrate vias, the plurality of through substrate vias and traces operating as the at least one 3D inductor (L 1), the first plurality of traces and the second plurality of traces having a width (336, 446) of less than ten micrometers and/or a thickness of less than one micrometer, wherein the spacing (338, 438) between adjacent traces is less than ten micrometers. a glass substrate having a plurality of through substrate vias; a plurality of capacitors (C 1 -C 3) supported by the glass substrate, a width of at least one of the plurality of capacitors being less than ten micrometers and a thickness of the at least one capacitor being less than one micrometer; and at least one 3D inductor within the glass substrate, the at least one 3D inductor comprising: a first plurality of traces on a first surface of the glass substrate, coupled to the plurality of through substrate vias; and a second plurality of traces on a second surface of the glass substrate, opposite the first surface, coupled to opposite ends of the plurality of through substrate vias, the plurality of through substrate vias and traces operating as the at least one 3D inductor (L 1), the first plurality of traces and the second plurality of traces having a width (336, 446) of less than ten micrometers and/or a thickness of less than one micrometer, wherein the spacing (338, 438) between adjacent traces is less than ten micrometers. a first plurality of traces on a first surface of the glass substrate, coupled to the plurality of through substrate vias; and a second plurality of traces on a second surface of the glass substrate, opposite the first surface, coupled to opposite ends of the plurality of through substrate vias, the plurality of through substrate vias and traces operating as the at least one 3D inductor (L 1), the first plurality of traces and the second plurality of traces having a width (336, 446) of less than ten micrometers and/or a thickness of less than one micrometer, wherein the spacing (338, 438) between adjacent traces is less than ten micrometers.
A bead beater homogenizer comprising: a shaft having a main body extending along a main axis and a distal connection body extending along a connection axis that is acutely angled with respect to the main axis; a housing containing a motor configured to rotate the shaft about the main axis; a head rotatably connected to the distal connection body of the shaft and connected to the housing by a first spring on a first side of the shaft and a second spring on a second side of the shaft; and a clamp secured to the head and configured to secure a sample vial holder configured to hold one or more sample vials therein, wherein rotational motion of the shaft about the main axis is translated into motion of the head in directions normal to the main axis, wherein the main body of the shaft intersects with the distal connection body at a bend or elbow in the shaft, and wherein the distal connection body is disposed within a lumen defined by the head. a shaft having a main body extending along a main axis and a distal connection body extending along a connection axis that is acutely angled with respect to the main axis; a housing containing a motor configured to rotate the shaft about the main axis; a head rotatably connected to the distal connection body of the shaft and connected to the housing by a first spring on a first side of the shaft and a second spring on a second side of the shaft; and a clamp secured to the head and configured to secure a sample vial holder configured to hold one or more sample vials therein, wherein rotational motion of the shaft about the main axis is translated into motion of the head in directions normal to the main axis, wherein the main body of the shaft intersects with the distal connection body at a bend or elbow in the shaft, and wherein the distal connection body is disposed within a lumen defined by the head.