mhurhangee/ep-ind-claims huggingface dataset:
A port member for an infusion solution bag comprising a tubular body portion having one end plugged by a plug member structured to enable a hollow needle to be pierced into the plug member, and a tubular to-be-sealed portion continuously formed with an other end of the body portion and having an inner space communicated with the inside of the body portion, the to-be-sealed portion being held between and sealed to end portions (E2, E2) of resin sheets (S, S) overlapped together to form a bag body having an inner space for accommodation of at least a medicine, in which the body portion comprises a to-be-plugged portion having a tubular shape which is plugged by the plug member, a connection tube portion having a cylindrical tube shape which is continuously formed with the to-be-plugged portion and having an inside communicated with the inside of the to-be-plugged portion, and a deformed tube portion which provides a connection between the connection tube portion and the to-be-sealed portion in communication with each other, the deformed tube portion being so formed as to be deformed from a cylindrical tube shape to a flattened tube shape from one end connected to the connection tube portion toward an other end connected to the to be sealed portion in such a manner that an opening area becomes smaller from the one end toward the other end, and the to-be-sealed portion thus sealed has a radially flattened shape.
A pacemaker comprising: a pulse generator configured to generate pacing pulses; a sensing circuit comprising an R-wave detector for sensing R-waves from a cardiac electrical signal; a motion sensor comprising a plurality of axes, each axis of the plurality of axes being configured to produce an axis signal; and a control circuit coupled to the motion sensor, the sensing circuit and the pulse generator and configured to: identify a plurality of ventricular events; following each of the plurality of ventricular events, set a sensing window; for each vector signal of a plurality of vector signals, determine a maximum amplitude of the vector signal during each of a plurality of the sensing windows, each of the plurality of vector signals comprising at least one axis signal from the motion sensor; select an atrial event sensing vector signal from among the plurality of vector signals based on the determined maximum amplitudes; sense an atrial event from the selected atrial event sensing vector signal; and produce an atrial sensed event signal in response to the sensed atrial event. a pulse generator configured to generate pacing pulses; a sensing circuit comprising an R-wave detector for sensing R-waves from a cardiac electrical signal; a motion sensor comprising a plurality of axes, each axis of the plurality of axes being configured to produce an axis signal; and a control circuit coupled to the motion sensor, the sensing circuit and the pulse generator and configured to: identify a plurality of ventricular events; following each of the plurality of ventricular events, set a sensing window; for each vector signal of a plurality of vector signals, determine a maximum amplitude of the vector signal during each of a plurality of the sensing windows, each of the plurality of vector signals comprising at least one axis signal from the motion sensor; select an atrial event sensing vector signal from among the plurality of vector signals based on the determined maximum amplitudes; sense an atrial event from the selected atrial event sensing vector signal; and produce an atrial sensed event signal in response to the sensed atrial event. identify a plurality of ventricular events; following each of the plurality of ventricular events, set a sensing window; for each vector signal of a plurality of vector signals, determine a maximum amplitude of the vector signal during each of a plurality of the sensing windows, each of the plurality of vector signals comprising at least one axis signal from the motion sensor; select an atrial event sensing vector signal from among the plurality of vector signals based on the determined maximum amplitudes; sense an atrial event from the selected atrial event sensing vector signal; and produce an atrial sensed event signal in response to the sensed atrial event.
A method for predicting a turbine outlet temperature at a future use of a gas turbine based on a past use of the gas turbine, the gas turbine getting an output power by compressing air introduced by a fan and then combusting the air together with fuel, the method comprising: an outlet temperature prediction step for predicting, by a turbine outlet temperature model, the turbine outlet temperature at the future use that is an objective variable by using at least one parameter in environmental and operational conditions planned for the future use of the gas turbine and a rotating speed of the fan planned for the future use as explanatory variables; and a learning step for identifying coefficients with respect to the explanatory variables, the learning step being done every time when a given learning trigger is satisfied, wherein, in the learning step, the coefficients with respect to the explanatory variables are identified based on a result of a regression learning of the explanatory variables and the objective variable of the turbine outlet temperature model that is made by using the parameter, the rotating speed of the fan and the turbine outlet temperature at the past use of the gas turbine. an outlet temperature prediction step for predicting, by a turbine outlet temperature model, the turbine outlet temperature at the future use that is an objective variable by using at least one parameter in environmental and operational conditions planned for the future use of the gas turbine and a rotating speed of the fan planned for the future use as explanatory variables; and a learning step for identifying coefficients with respect to the explanatory variables, the learning step being done every time when a given learning trigger is satisfied, wherein, in the learning step, the coefficients with respect to the explanatory variables are identified based on a result of a regression learning of the explanatory variables and the objective variable of the turbine outlet temperature model that is made by using the parameter, the rotating speed of the fan and the turbine outlet temperature at the past use of the gas turbine.
A fastener comprising first and second fastening parts inter-engageable for fastening two side parts of a brassiere or similar article of clothing, the first and second fastening parts including co-operable fastening members (101, 102) for detachable fastening, wherein the fastening members (101, 102), at least when attached, are concealable by a concealing member, the concealing member being moveable between an operating position to conceal the fastening members (101, 102) and a non-operating position to expose the fastening members (101, 102); and wherein the concealing member has outer and inner opposite surfaces, characterized in that the outer surface is exposed when the concealing member is at the operating position; and the inner surface is exposed when the concealing member is at the non-operating position and is distinguishable from the outer surface for indication purpose.
An antibody or antibody fragment for use in a method of reducing the severity of an autoimmune disease selected from Graves' disease, rheumatoid arthritis, systemic lupus erythematosus, ulcerative colitis, scleroderma and Crohn's disease, wherein the antibody or antibody fragment binds to an Insulin Like Growth Factor 1 Receptor (IGF-1R), inhibits the interaction between the IGF-1R and endogenous autoimmune anti-IGF-1R immunoglobulin G, and inhibits the activation by said endogenous autoimmune immunoglobulin G of fibroblasts in said disease.
A compound of the formula: R 1.[ n.-AO-R 2] m where: R 1 is a core group which is the residue after removal of m active hydrogens from a group having at least m free hydroxyl and/or amino groups where m is at least 3; AO is an alkylene oxide residue; each n is independently from 2 to 50 and the total of n x m is from 20 to 100; and each R 2 is independently H or an acyl group COR 3 where each R 3 is independently a residue of a polyhydroxyalkyl or polyhydroxyalkenyl carboxylic acid comprising on average from 2 to 10 hydroxyalkyl or hydroxyalkenyl units and/or a residue of an oligomer of a hydroxyalkyl or hydroxyalkenyl carboxylic acid, wherein on average at least 2 of R 2 is an acyl group COR 3. R 1 is a core group which is the residue after removal of m active hydrogens from a group having at least m free hydroxyl and/or amino groups where m is at least 3; AO is an alkylene oxide residue; each n is independently from 2 to 50 and the total of n x m is from 20 to 100; and each R 2 is independently H or an acyl group COR 3 where each R 3 is independently a residue of a polyhydroxyalkyl or polyhydroxyalkenyl carboxylic acid comprising on average from 2 to 10 hydroxyalkyl or hydroxyalkenyl units and/or a residue of an oligomer of a hydroxyalkyl or hydroxyalkenyl carboxylic acid, wherein on average at least 2 of R 2 is an acyl group COR 3.
A laminate material comprising: a first paper web having a top surface and a bottom surface; a biodegradable polymeric film having a top surface and a bottom surface, wherein the top surface of the polymeric film is bonded to the bottom surface of the first paper web by a 100% solids adhesive; a layer of conductive material with a thickness of between 7.62 x 10 -7 and 2.54 x 10 -3 cm (3 x 10 -7 and 1 x 10 -3 inches), the layer of conductive material having a top surface and a bottom surface, wherein the top surface of the layer of conductive material is bonded to the bottom surface of the polymeric film by a 100% solids adhesive; a second paper web having a top surface and a bottom surface, wherein the top surface is bonded to the bottom surface of the layer of conductive material by a 100% solids adhesive; and a coating applied to the surface of the laminate material using five roll coating, wherein the laminate material is configured to shield radiation having frequencies between 3Hz and 3 GHz. a first paper web having a top surface and a bottom surface; a biodegradable polymeric film having a top surface and a bottom surface, wherein the top surface of the polymeric film is bonded to the bottom surface of the first paper web by a 100% solids adhesive; a layer of conductive material with a thickness of between 7.62 x 10 -7 and 2.54 x 10 -3 cm (3 x 10 -7 and 1 x 10 -3 inches), the layer of conductive material having a top surface and a bottom surface, wherein the top surface of the layer of conductive material is bonded to the bottom surface of the polymeric film by a 100% solids adhesive; a second paper web having a top surface and a bottom surface, wherein the top surface is bonded to the bottom surface of the layer of conductive material by a 100% solids adhesive; and a coating applied to the surface of the laminate material using five roll coating, wherein the laminate material is configured to shield radiation having frequencies between 3Hz and 3 GHz.
A composition comprising carbon particles of fullerenic soot, characterized in that the carbon particles of fullerenic soot carry a coating of a layer consisting of a plasma-polymerized monomer on a core carbon particle.
Device for the introduction and block of the filter holder in coffee machines, associated with a dispensing assembly of a coffee machine with a rounded body having a lower abutment portion able to be coupled to a filter holder, comprising: - at least a movable body associated with said dispensing assembly in a sliding manner with respect thereto and having a seat arranged below said lower abutment portion and able to accommodate said filter holder; - sliding means (10, 11, 15) associated with said movable body and able to make said movable body to slide along a main direction between an opening position, in which the distance between said seat and said lower abutment portion is maximum and said filter holder is insertable into and removable from said seat, and a closing position, in which the distance between said seat and said lower abutment portion is minimal and said filter holder is blocked in said seat, wherein said sliding means (10, 11, 15) comprise at least an electric motor mounted on said movable body and at least a screw-nut screw system (11, 15) connected to said electric motor, said electric motor being able to provide motion to said movable body by means of said screw-nut screw system (11, 15); characterized by the fact that said screw-nut screw system (11, 15) comprises: - at least a support screw substantially fixed, that extends along said main direction and that rests on said rounded body; and - a cylindrical body mounted on said movable body and having a nut screw engaged around said support screw, and connected to said electric motor and able to slide along said support screw due to the rotary motion of the electric motor. - at least a movable body associated with said dispensing assembly in a sliding manner with respect thereto and having a seat arranged below said lower abutment portion and able to accommodate said filter holder; - sliding means (10, 11, 15) associated with said movable body and able to make said movable body to slide along a main direction between an opening position, in which the distance between said seat and said lower abutment portion is maximum and said filter holder is insertable into and removable from said seat, and a closing position, in which the distance between said seat and said lower abutment portion is minimal and said filter holder is blocked in said seat, wherein said sliding means (10, 11, 15) comprise at least an electric motor mounted on said movable body and at least a screw-nut screw system (11, 15) connected to said electric motor, said electric motor being able to provide motion to said movable body by means of said screw-nut screw system (11, 15); - at least a support screw substantially fixed, that extends along said main direction and that rests on said rounded body; and - a cylindrical body mounted on said movable body and having a nut screw engaged around said support screw, and connected to said electric motor and able to slide along said support screw due to the rotary motion of the electric motor.
A pneumatic tyre comprising a carcass ply, two beads, a tread strip, a tread belt comprising at least two tread plies, an innerliner and an additional functional material layer (4,5) arranged between the innerliner and the inner cavity of the pneumatic tyre characterized in that a net layer comprising a plurality of meshes (6, 60, 600) is interposed between the innerliner and the additional functional material layer (4,5).
A method, comprising: forming an ion beam using a gas field ion source having a tip operating at voltage that is at least 5% greater than a best imaging voltage for the gas; and using the ion beam to investigate and/or modify a sample, characterized in that the sample is different from the tip. forming an ion beam using a gas field ion source having a tip operating at voltage that is at least 5% greater than a best imaging voltage for the gas; and using the ion beam to investigate and/or modify a sample, characterized in that the sample is different from the tip.
A method of reporting channel state information on an unlicensed band by a user equipment to an eNB in a wireless communication system, the method comprising: receiving a triggering message of a sounding reference signal from the eNB to report the channel state information on the unlicensed band; measuring interference on the unlicensed band; determining a transmit power of the sounding reference signal according to the measured interference on the unlicensed band; and if the interference measured on the unlicensed band is less than a threshold value, transmitting the sounding reference signal for reporting the channel state information on the unlicensed band to the eNB according to the determined transmit power, wherein the channel state information on the unlicensed band is transmitted using a specific symbol of a subframe on which the sounding reference signal is transmitted. receiving a triggering message of a sounding reference signal from the eNB to report the channel state information on the unlicensed band; measuring interference on the unlicensed band; determining a transmit power of the sounding reference signal according to the measured interference on the unlicensed band; and if the interference measured on the unlicensed band is less than a threshold value, transmitting the sounding reference signal for reporting the channel state information on the unlicensed band to the eNB according to the determined transmit power, wherein the channel state information on the unlicensed band is transmitted using a specific symbol of a subframe on which the sounding reference signal is transmitted.
A downhole device comprising: a body with a bore; at least one retained component; an engagement member for engaging the at least one retained component with the body, the engagement member having a main axis; a retaining member for retaining the engagement member, the retaining member being moveable from a release position to a retaining position, characterised in that the retaining member is a retaining bar; and wherein in the retaining position, the retaining member is provided in line with said axis, such that the engagement member abuts with the retaining member so that it obstructs and resists movement of the engagement member along the axis, and wherein in the retaining position, the retaining member extends through the body bore. a body with a bore; at least one retained component; an engagement member for engaging the at least one retained component with the body, the engagement member having a main axis; a retaining member for retaining the engagement member, the retaining member being moveable from a release position to a retaining position, characterised in that the retaining member is a retaining bar; and wherein in the retaining position, the retaining member is provided in line with said axis, such that the engagement member abuts with the retaining member so that it obstructs and resists movement of the engagement member along the axis, and wherein in the retaining position, the retaining member extends through the body bore.
A nuclear power plant including a gas supply apparatus comprising: an operation valve mounted in some midpoint of a piping (20A, 20B) for passing at least gas in the nuclear power plant and operating a valve body by the gas flowing in the piping (20A, 20B); a first solenoid valve mounted in some midpoint of the piping (20A, 20B) and allowing/stopping flow of the gas to the operation valve; a gas supply source provided outside a building for supplying gas to the first solenoid valve at the time of power loss, and a gas supply line provided inside the building for supplying gas to the first solenoid valve in normal use time, wherein a switching valve for switching between exhaust from the first solenoid valve and gas supply to the first solenoid valve is mounted in an exhaust line of the first solenoid valve and, at the time of power loss, the switching valve is switched to connection to the gas supply source for supplying gas to the first solenoid valve, and the gas supply source is connected to the piping (20A, 20B) via a second solenoid valve, mounted in the piping outside of the building and driven by a power supply of a kind different from that of the first solenoid valve or a manual valve. an operation valve mounted in some midpoint of a piping (20A, 20B) for passing at least gas in the nuclear power plant and operating a valve body by the gas flowing in the piping (20A, 20B); a first solenoid valve mounted in some midpoint of the piping (20A, 20B) and allowing/stopping flow of the gas to the operation valve; a gas supply source provided outside a building for supplying gas to the first solenoid valve at the time of power loss, and a gas supply line provided inside the building for supplying gas to the first solenoid valve in normal use time, wherein a switching valve for switching between exhaust from the first solenoid valve and gas supply to the first solenoid valve is mounted in an exhaust line of the first solenoid valve and, at the time of power loss, the switching valve is switched to connection to the gas supply source for supplying gas to the first solenoid valve, and the gas supply source is connected to the piping (20A, 20B) via a second solenoid valve, mounted in the piping outside of the building and driven by a power supply of a kind different from that of the first solenoid valve or a manual valve.
A system for an aortic procedure, the system comprising: an imaging probe configured to capture intravascular image data from an aorta; a sensor configured to measure a fluid property within the aorta; an external imaging modality for capturing extravascular image data of the aorta; and a control system configured to: co-register the intravascular image data, the extravascular image data and the fluid property, wherein a current location of the imaging probe within a vasculature is visualized while simultaneously observing functional flow metrics indicative of cardiovascular disease, provide output representing a cross-section of the aorta, crucial information on vessel tortuosity and a flow characteristic of the fluid therein, characterized in that the control system is configured to detect an endoleak associated with an aortic repair procedure based on the co-registered intravascular image data, extravascular image data and fluid property. an imaging probe configured to capture intravascular image data from an aorta; a sensor configured to measure a fluid property within the aorta; an external imaging modality for capturing extravascular image data of the aorta; and a control system configured to: co-register the intravascular image data, the extravascular image data and the fluid property, wherein a current location of the imaging probe within a vasculature is visualized while simultaneously observing functional flow metrics indicative of cardiovascular disease, provide output representing a cross-section of the aorta, crucial information on vessel tortuosity and a flow characteristic of the fluid therein, characterized in that the control system is configured to detect an endoleak associated with an aortic repair procedure based on the co-registered intravascular image data, extravascular image data and fluid property. co-register the intravascular image data, the extravascular image data and the fluid property, wherein a current location of the imaging probe within a vasculature is visualized while simultaneously observing functional flow metrics indicative of cardiovascular disease, provide output representing a cross-section of the aorta, crucial information on vessel tortuosity and a flow characteristic of the fluid therein, characterized in that the control system is configured to detect an endoleak associated with an aortic repair procedure based on the co-registered intravascular image data, extravascular image data and fluid property.