mhurhangee/ep-ind-claims huggingface dataset:
A turning characteristic estimating device for a vehicle for estimating a stability factor (Kh) and a time constant coefficient (Tp) of steering response that are parameter values related to turning characteristics of the vehicle, wherein the turning characteristic estimating device determines validity of estimation values based on a standard yaw rate (YrStd) of the vehicle and an actual yaw rate (Yr) of the vehicle, the standard yaw rate (YrStd) being calculated by using estimation values of the stability factor (Kh) and the time constant coefficient (Tp) of steering response estimated by the turning characteristic estimating device, characterized in that the turning characteristic estimating device changes a changing operation on the stability factor (Kh) and the time constant coefficient (Tp) of steering response of the vehicle corresponding to a determination result of the validity of the estimation values and depending on an estimated state of the estimating process and thereon whether the turning of the vehicle has been ended, wherein the estimated state of the estimating process is either a state without a result of determining that there is validity in the past estimating process or a state with a result of determining that there is validity in the past estimating process.
Thread, especially surgical thread, comprising an elongate thread body and a coating surrounding the thread body at least partially, characterized in that the thread body consists of polyethylene and the coating consists of a resorbable material and optionally additives,wherein the polyethylene is an ultrahigh molecular weight polyethylene, the resorbable material is a polyhydroxyalkanoate or a polymer selected from the group consisting of polyglycolide, polylactide, poly-3-hydroxybutyrate, poly-4-hydroxybutyrate, polytrimethylene carbonate, poly-para-dioxanone, poly-s-caprolactone, copolymers thereof and mixtures thereof and the coating is a non-textile coating.
A device for aspirating and dispensing more than one liquid sample, said device comprising - a main frame body - more than one pipetting units, said pipetting units extending side by side in parallel with each other; wherein each pipetting unit comprises - an interface for interacting with an interface of a pipette tip (3,4), - a first module for aspirating and dispensing a liquid, - a second module for Y-axis movement, and third module for Z-Axis movement, wherein said second and third modules are function independently; - a fourth module for controlling functions of said pipette unit; - an upper frame and a lower frame for receiving at least one of said modules (705, 711, 717), wherein said at least one module (705, 711,717) is mounted in one of said frames (703, 704), the other frame being left empty, wherein said lower frame is arranged underneath said upper frame, - an X-transfer mechanism connected to said main frame body to which said pipetting units are connected; wherein said at least one module (705, 711, 717) of the immediately adjacent pipette unit is mounted in one of said two frames (703, 704) in the location corresponding to the frame being empty of the pipette unit of said more than one pipetting units. - a main frame body - more than one pipetting units, said pipetting units extending side by side in parallel with each other; wherein each pipetting unit comprises - an interface for interacting with an interface of a pipette tip (3,4), - a first module for aspirating and dispensing a liquid, - a second module for Y-axis movement, and third module for Z-Axis movement, wherein said second and third modules are function independently; - a fourth module for controlling functions of said pipette unit; - an upper frame and a lower frame for receiving at least one of said modules (705, 711, 717), wherein said at least one module (705, 711,717) is mounted in one of said frames (703, 704), the other frame being left empty, wherein said lower frame is arranged underneath said upper frame, - an interface for interacting with an interface of a pipette tip (3,4), - a first module for aspirating and dispensing a liquid, - a second module for Y-axis movement, and third module for Z-Axis movement, wherein said second and third modules are function independently; - a fourth module for controlling functions of said pipette unit; - an upper frame and a lower frame for receiving at least one of said modules (705, 711, 717), wherein said at least one module (705, 711,717) is mounted in one of said frames (703, 704), the other frame being left empty, wherein said lower frame is arranged underneath said upper frame, - an X-transfer mechanism connected to said main frame body to which said pipetting units are connected; wherein said at least one module (705, 711, 717) of the immediately adjacent pipette unit is mounted in one of said two frames (703, 704) in the location corresponding to the frame being empty of the pipette unit of said more than one pipetting units.
Spreadable granulate being suitable for use as infill granulate for grass and artificial turf fields, the spreadable granulate comprising a polymer matrix with a percentage between 10% by mass and 100% by mass of at least one biodegradable polymer and at least one filler from the group of natural fillers being embedded in the polymer matrix with the at least one biodegradable polymer, characterized in that the granulate comprises at least one filler from the group of the comminuted fruit kernels.
A detector comprising: a housing; a flame detector sensor mounted within the housing; a first temperature sensing element for sensing the temperature of the flame detector sensor; a second temperature sensing element for sensing ambient temperature; a heater positioned adjacent to the sensor; and control means arranged to receive output signals from the first temperature sensing element and the second temperature sensing element, and configured to vary the power supplied to the heater; characterised in that the control means is further configured to: compare the output signal of the second temperature sensing element with the output signal of the first temperature sensing element, and in response to the comparison, determine an amount of power to the heater in order to control a rate of change of the temperature of the flame detector sensor to be within a predetermined limit whilst aiming to maintain the temperature of the flame detector sensor at a predetermined offset above the ambient temperature; and control the power supplied to the heater based on said determined amount of power to control the rate of change of the temperature of the flame detector sensor to be within the predetermined limit whilst aiming to maintain the temperature of the flame detector sensor at the predetermined offset above the ambient temperature. a housing; a flame detector sensor mounted within the housing; a first temperature sensing element for sensing the temperature of the flame detector sensor; a second temperature sensing element for sensing ambient temperature; a heater positioned adjacent to the sensor; and control means arranged to receive output signals from the first temperature sensing element and the second temperature sensing element, and configured to vary the power supplied to the heater; characterised in that the control means is further configured to: compare the output signal of the second temperature sensing element with the output signal of the first temperature sensing element, and in response to the comparison, determine an amount of power to the heater in order to control a rate of change of the temperature of the flame detector sensor to be within a predetermined limit whilst aiming to maintain the temperature of the flame detector sensor at a predetermined offset above the ambient temperature; and control the power supplied to the heater based on said determined amount of power to control the rate of change of the temperature of the flame detector sensor to be within the predetermined limit whilst aiming to maintain the temperature of the flame detector sensor at the predetermined offset above the ambient temperature.
SUPPORT ELEMENT FOR SIGNS, applicable for the placement of signs or lettering of laminar type on display stands, with rod shapes, whereon the products are hung, characterized in that it comprises a body, which at one of its ends has an open lateral slot, suitable for inserting a sign therein and while at its opposite end features a housing whereto is solidly attached another body of flexible material, which has a central orifice whose dimensions are suitable to tightly surround the rods of the display stand whereto the support element is destined and permits it to be held thereon.
A method for evaluating hematotoxicity of a drug to be evaluated, the method comprising: administering the drug to be evaluated to a humanized, transgenic NOG mouse where the humanized, transgenic NOG mouse is obtained by introducing a human GM-CSF/IL-3 gene combination into a NOG mouse, and the number of human-derived leucocytes in leucocytes in blood thereof is 20% or more; and evaluating that the drug to be evaluated has the hematotoxicity in a case where when a sample of the humanized, transgenic NOG mouse after administering the drug to be evaluated is measured for the number of human-derived granulocytes, the number of said granulocytes is reduced compared to a control to which a vehicle is administered instead of the drug to be evaluated. administering the drug to be evaluated to a humanized, transgenic NOG mouse where the humanized, transgenic NOG mouse is obtained by introducing a human GM-CSF/IL-3 gene combination into a NOG mouse, and the number of human-derived leucocytes in leucocytes in blood thereof is 20% or more; and evaluating that the drug to be evaluated has the hematotoxicity in a case where when a sample of the humanized, transgenic NOG mouse after administering the drug to be evaluated is measured for the number of human-derived granulocytes, the number of said granulocytes is reduced compared to a control to which a vehicle is administered instead of the drug to be evaluated.
An image forming apparatus comprising: a photosensitive drum; an LED Print Head, LPH, configured to emit light to the photosensitive drum based on a sync signal; an image former configured to perform printing using the LPH; a sensor configured to sense a cyclical speed of the photosensitive drum; and an LPH controller configured to adjust a generation gap of the sync signal using the sensed cyclical speed, wherein the LPH controller is configured to generate a line sync signal and page sync signal with the sync signal, and is configured to generate an offset only to the line sync signal, so that a timing of the page sync signal and a timing of the line sync signal do not match each other. a photosensitive drum; an LED Print Head, LPH, configured to emit light to the photosensitive drum based on a sync signal; an image former configured to perform printing using the LPH; a sensor configured to sense a cyclical speed of the photosensitive drum; and an LPH controller configured to adjust a generation gap of the sync signal using the sensed cyclical speed, wherein the LPH controller is configured to generate a line sync signal and page sync signal with the sync signal, and is configured to generate an offset only to the line sync signal, so that a timing of the page sync signal and a timing of the line sync signal do not match each other.
Renovation method of a sewer pipe presenting at least one first section of a water flow duct, said method comprising the following steps: - a step of introducing at least one heat exchanger into the sewer pipe in the extension of said first section of duct so that said at least one heat exchanger is located, at least in part, in a stream of flowing water in a water flow duct, said water flow duct being formed by said at least one heat exchanger and said at least one first section of the water flow duct, the heat exchanger comprising tubular ducts made at least in part in a polymer-type material, preferably of PEHD; - a step of fixing said at least one heat exchanger to said sewer pipe so as to form an annular space (E a) between a first inner wall surface of the pipe and a second outer wall surface of said at least one heat exchanger and; - a first step of filling of said annular space (E a) with mortar, preferably non-shrink mortar; said process being characterised in that the step of introducing at least one heat exchanger into the sewer pipe is based on a) an introduction of said heat exchanger in the form of a bundle of tubular ducts (5 a), said bundle of tubular ducts (5 a) forming a lost formwork between said first inner wall surface of the pipe and a second outer wall surface of said bundle of tubular ducts; and on b) a location of said tubular ducts of the bundle forming the heat exchanger in said stream of flowing water. - a step of introducing at least one heat exchanger into the sewer pipe in the extension of said first section of duct so that said at least one heat exchanger is located, at least in part, in a stream of flowing water in a water flow duct, said water flow duct being formed by said at least one heat exchanger and said at least one first section of the water flow duct, the heat exchanger comprising tubular ducts made at least in part in a polymer-type material, preferably of PEHD; - a step of fixing said at least one heat exchanger to said sewer pipe so as to form an annular space (E a) between a first inner wall surface of the pipe and a second outer wall surface of said at least one heat exchanger and; - a first step of filling of said annular space (E a) with mortar, preferably non-shrink mortar; a) an introduction of said heat exchanger in the form of a bundle of tubular ducts (5 a), said bundle of tubular ducts (5 a) forming a lost formwork between said first inner wall surface of the pipe and a second outer wall surface of said bundle of tubular ducts; and on b) a location of said tubular ducts of the bundle forming the heat exchanger in said stream of flowing water.
A dilation catheter system, wherein the dilation catheter system comprises: (a) a guide catheter, the guide catheter including: a shaft comprising a distal end and a proximal end, the shaft defining a longitudinal axis, and a lumen extending longitudinally through the shaft; the distal end of the guide catheter comprising: a visualization assembly at least a portion of which projects outwardly from the distal end of the guide catheter along an axis parallel to the longitudinal axis of the shaft of the guide catheter, and a bent region that curves away from the visualization assembly, wherein an image sensor configured to provide visualization within anatomy of a patient is integrated into the visualization assembly such that the image sensor is integral with the guide catheter; (b) a dilation catheter movable relative to the guide catheter, the dilation catheter comprising an expandable dilator, the expandable dilator sized to fit within one or both of a Eustachian tube or a passageway associated with a paranasal sinus, and wherein the guide catheter lumen is configured to slidably receive the dilation catheter therein. (a) a guide catheter, the guide catheter including: a shaft comprising a distal end and a proximal end, the shaft defining a longitudinal axis, and a lumen extending longitudinally through the shaft; the distal end of the guide catheter comprising: a visualization assembly at least a portion of which projects outwardly from the distal end of the guide catheter along an axis parallel to the longitudinal axis of the shaft of the guide catheter, and a bent region that curves away from the visualization assembly, wherein an image sensor configured to provide visualization within anatomy of a patient is integrated into the visualization assembly such that the image sensor is integral with the guide catheter; a visualization assembly at least a portion of which projects outwardly from the distal end of the guide catheter along an axis parallel to the longitudinal axis of the shaft of the guide catheter, and a bent region that curves away from the visualization assembly, wherein an image sensor configured to provide visualization within anatomy of a patient is integrated into the visualization assembly such that the image sensor is integral with the guide catheter; (b) a dilation catheter movable relative to the guide catheter, the dilation catheter comprising an expandable dilator, the expandable dilator sized to fit within one or both of a Eustachian tube or a passageway associated with a paranasal sinus, and wherein the guide catheter lumen is configured to slidably receive the dilation catheter therein.
Method for manufacturing an external component for horology or jewellery made of a composite material comprising a reinforcement formed of a structure and a matrix composed of a synthetic material, said method comprising the successive steps consisting of: a) Making a 3D file of the reinforcement, b) Constructing said reinforcement by additive manufacturing on the basis of the 3D file, c) Embedding all or part of said reinforcement in the synthetic material characterised in that it further includes: before step c), a step of inserting one or more fusible or soluble cores respectively in one or more cavities of the reinforcement intended to remain empty after step c), and after step c), a step of dissolving or melting the core or cores. a) Making a 3D file of the reinforcement, b) Constructing said reinforcement by additive manufacturing on the basis of the 3D file, c) Embedding all or part of said reinforcement in the synthetic material characterised in that it further includes: before step c), a step of inserting one or more fusible or soluble cores respectively in one or more cavities of the reinforcement intended to remain empty after step c), and after step c), a step of dissolving or melting the core or cores.
Container for the ex vivo treatment of biological fluids, in particular blood, comprising: - a rigid body; - a reservoir provided inside said body; - formed by a side wall, a rigid upper wall, and a rigid lower wall; - said reservoir having an inner thickness defined by the separation between said upper wall and said lower wall; - at least one of said upper wall or said lower wall having a window region configured to allow the passage of electromagnetic radiation from the outside of said body to said reservoir; - a first access port for fluids to said reservoir from the outside of said body; - first closure means for said first port; - a second access port for fluids to said reservoir from the outside of said body; - second closure means for said second port; said reservoir being closed except for said first port and second port; characterized in that said first closure means and said second closure means being configured to jointly provide a gas and liquid tight seal for said reservoir. - a rigid body; - a reservoir provided inside said body; - formed by a side wall, a rigid upper wall, and a rigid lower wall; - said reservoir having an inner thickness defined by the separation between said upper wall and said lower wall; - at least one of said upper wall or said lower wall having a window region configured to allow the passage of electromagnetic radiation from the outside of said body to said reservoir; - formed by a side wall, a rigid upper wall, and a rigid lower wall; - said reservoir having an inner thickness defined by the separation between said upper wall and said lower wall; - at least one of said upper wall or said lower wall having a window region configured to allow the passage of electromagnetic radiation from the outside of said body to said reservoir; - a first access port for fluids to said reservoir from the outside of said body; - first closure means for said first port; - a second access port for fluids to said reservoir from the outside of said body; - second closure means for said second port; said reservoir being closed except for said first port and second port; characterized in that said first closure means and said second closure means being configured to jointly provide a gas and liquid tight seal for said reservoir.
A method of manufacturing a delaminatable container, comprising: a container body formation step, comprising forming a container body having an outer shell and an inner bag; and a preliminary delamination step, comprising preliminarily delaminating the inner bag from the outer shell; characterized in that the preliminary delamination step is an entire circumference preliminary delamination step, comprising preliminarily delaminating the inner bag from the outer shell in an entire circumference of a storage portion of the container body by rotating the container body while pressing the storage portion with a pressing mechanism from outside for compression or by moving the pressing mechanism along an outer circumference of the container body. a container body formation step, comprising forming a container body having an outer shell and an inner bag; and a preliminary delamination step, comprising preliminarily delaminating the inner bag from the outer shell; characterized in that the preliminary delamination step is an entire circumference preliminary delamination step, comprising preliminarily delaminating the inner bag from the outer shell in an entire circumference of a storage portion of the container body by rotating the container body while pressing the storage portion with a pressing mechanism from outside for compression or by moving the pressing mechanism along an outer circumference of the container body.
A cutting tool comprising: a base material; and a coating film covering the base material in contact with the base material, the base material being a cubic boron nitride sintered material, the coating film being a ceramic, an amount of oxygen in the coating film being less than or equal to 0.040 mass percent. a base material; and a coating film covering the base material in contact with the base material, the base material being a cubic boron nitride sintered material, the coating film being a ceramic, an amount of oxygen in the coating film being less than or equal to 0.040 mass percent.