mhurhangee/ep-ind-claims huggingface dataset:
An automated raw material screening device adapted to perform a measurement on a sample with an NMR spectrometer and to process resulting signals to generate a sample NMR spectrum of the sample, the device comprising: a spectral database (128; 208) containing a plurality of spectral entries of known reference material, a knowledgebase (132; 212) containing definitions of spectral properties of all compounds of the spectral database (128; 208) including information about the areas in the NMR spectrum of the compound where a signal intensity peak is expected and the number of atoms at the peak is defined, and a shape definition of the peak within each area including the expected coupling pattern, a qualitative analysis unit with a compound identification program adapted to compare at least one reference NMR spectrum stored in the spectral database (128; 208) or the knowledgebase (132; 212) corresponding to a compound present in the sample; wherein the qualitative analysis unit is adapted to identify the one reference NMR spectrum by selecting a reference NMR spectrum that has intensity peaks at chemical shift locations at which the sample NMR spectrum has intensity peaks; the device further comprising a quantitative analysis unit adapted to determine the relative amounts of each compound present by integrating relative signal intensity signals of the sample spectrum in regions of peak intensity in the one reference NMR spectrum retrieved from the knowledgebase (132; 212) and to compare integration results to a number of atoms in each region in order to confirm identification of the compound. a spectral database (128; 208) containing a plurality of spectral entries of known reference material, a knowledgebase (132; 212) containing definitions of spectral properties of all compounds of the spectral database (128; 208) including information about the areas in the NMR spectrum of the compound where a signal intensity peak is expected and the number of atoms at the peak is defined, and a shape definition of the peak within each area including the expected coupling pattern, a qualitative analysis unit with a compound identification program adapted to compare at least one reference NMR spectrum stored in the spectral database (128; 208) or the knowledgebase (132; 212) corresponding to a compound present in the sample; wherein the qualitative analysis unit is adapted to identify the one reference NMR spectrum by selecting a reference NMR spectrum that has intensity peaks at chemical shift locations at which the sample NMR spectrum has intensity peaks; the device further comprising a quantitative analysis unit adapted to determine the relative amounts of each compound present by integrating relative signal intensity signals of the sample spectrum in regions of peak intensity in the one reference NMR spectrum retrieved from the knowledgebase (132; 212) and to compare integration results to a number of atoms in each region in order to confirm identification of the compound.
A medical device, comprising: a plurality of electrodes (18, 20, 22) capable of forming a plurality of sensing vectors for sensing cardiac signals; and a processor configured to determine whether to adjust a blanking period during a first operating state, advance from the first operating state to a second operating state in response to the sensed cardiac signals, and characterized in that the processor is configured to determine, while in the second operating state, whether the blanking period was adjusted while in the first operating state, and adjust the blanking period while in the second operating state in response to the blanking period being adjusted while in the first operating state. a plurality of electrodes (18, 20, 22) capable of forming a plurality of sensing vectors for sensing cardiac signals; and a processor configured to determine whether to adjust a blanking period during a first operating state, advance from the first operating state to a second operating state in response to the sensed cardiac signals, and characterized in that the processor is configured to determine, while in the second operating state, whether the blanking period was adjusted while in the first operating state, and adjust the blanking period while in the second operating state in response to the blanking period being adjusted while in the first operating state.
Assembly for conducting a hydraulic proof test, that is to say a pressure resistance test, of a hydraulic installation comprising at least a valve with parallel seats, the body of this valve having been stripped beforehand of its actuating stem, its parallel gates and the bonnet supporting said actuating stem, thus freeing an opening for accessing said parallel seats, characterised by the fact that it comprises: a shut off member with parallel plates (20, 21), one being apertured and the other being solid, these plates (20, 21) being connected by connecting means making it possible to regulate their mutual separation, so as to be able to make them go from a first so-called "retracted" position in which this separation is sufficient to enable the introduction of the shut off member into said valve via said opening, to a second so-called expanded position, in which said separation is greater than that of the plates (20, 21) in said first position, this separation making it possible to apply them firmly against said parallel seats; a device for inserting and supporting said shut off member inside said valve which comprises at least a tool designated "inner tool" which has a general "U" shape and is configured to be introduced into said valve, the parallel arms of this "U" shaped tool forming guides for the introduction and the removal of said shut-off member, while its base forms a support for retaining said shut-off member with a view to the application of its parallel plates (20, 21) against said parallel seats; a "dummy stem", that is to say a sealing equipment configured to close in a leak tight manner said valve after putting said support bonnet back in place. a shut off member with parallel plates (20, 21), one being apertured and the other being solid, these plates (20, 21) being connected by connecting means making it possible to regulate their mutual separation, so as to be able to make them go from a first so-called "retracted" position in which this separation is sufficient to enable the introduction of the shut off member into said valve via said opening, to a second so-called expanded position, in which said separation is greater than that of the plates (20, 21) in said first position, this separation making it possible to apply them firmly against said parallel seats; a device for inserting and supporting said shut off member inside said valve which comprises at least a tool designated "inner tool" which has a general "U" shape and is configured to be introduced into said valve, the parallel arms of this "U" shaped tool forming guides for the introduction and the removal of said shut-off member, while its base forms a support for retaining said shut-off member with a view to the application of its parallel plates (20, 21) against said parallel seats; a "dummy stem", that is to say a sealing equipment configured to close in a leak tight manner said valve after putting said support bonnet back in place.
An implantable medical device comprising: a sensing circuit configured to receive a cardiac electrical signal produced by a heart of a patient; a therapy delivery circuit configured to generate an electrical stimulation therapy for delivery to the heart of the patient; a telemetry circuit configured to receive a command from another medical device and a control circuit coupled to the sensing circuit, the therapy delivery circuit and the telemetry circuit and configured to: operate in a first mode comprising detecting a cardiac arrhythmia from the cardiac electrical signal and controlling the therapy delivery circuit to automatically deliver the electrical stimulation therapy in response to detecting the cardiac arrhythmia; and switch from operating in the first mode to operating in a second mode in response to receiving the command, wherein switching to the second mode comprises adjusting at least one control parameter used for controlling the electrical stimulation therapy, characterised in that said command indicates coimplantation of a ventricular assist device with the medical device in the patient. a sensing circuit configured to receive a cardiac electrical signal produced by a heart of a patient; a therapy delivery circuit configured to generate an electrical stimulation therapy for delivery to the heart of the patient; a telemetry circuit configured to receive a command from another medical device and a control circuit coupled to the sensing circuit, the therapy delivery circuit and the telemetry circuit and configured to: operate in a first mode comprising detecting a cardiac arrhythmia from the cardiac electrical signal and controlling the therapy delivery circuit to automatically deliver the electrical stimulation therapy in response to detecting the cardiac arrhythmia; and switch from operating in the first mode to operating in a second mode in response to receiving the command, wherein switching to the second mode comprises adjusting at least one control parameter used for controlling the electrical stimulation therapy, characterised in that said command indicates coimplantation of a ventricular assist device with the medical device in the patient. operate in a first mode comprising detecting a cardiac arrhythmia from the cardiac electrical signal and controlling the therapy delivery circuit to automatically deliver the electrical stimulation therapy in response to detecting the cardiac arrhythmia; and switch from operating in the first mode to operating in a second mode in response to receiving the command, wherein switching to the second mode comprises adjusting at least one control parameter used for controlling the electrical stimulation therapy, characterised in that said command indicates coimplantation of a ventricular assist device with the medical device in the patient.
Use of a cell culture membrane for cultivating embryonic stem cells or functional tissue cells, the cell culture membrane comprising: a polymer membrane that is composed of a structural unit represented by the following formula and formed on a base, with a membrane thickness of 0.2 μm or more; wherein, in the formula, R1 and R2 represent a -(CH 2) n -NH 2 moiety (n is an integer of 1-10 inclusive) or H, with at least one of R1 and R2 being a -(CH 2) n -NH 2 moiety; and, 1 and m are positive integers expressing polymerization degree. a polymer membrane that is composed of a structural unit represented by the following formula and formed on a base, with a membrane thickness of 0.2 μm or more; wherein, in the formula, R1 and R2 represent a -(CH 2) n -NH 2 moiety (n is an integer of 1-10 inclusive) or H, with at least one of R1 and R2 being a -(CH 2) n -NH 2 moiety; and, 1 and m are positive integers expressing polymerization degree.
A method of determining a transport block size for transmitting data, comprising: identifying data to be transmitted on an uplink over an unlicensed spectrum, wherein the data is associated with a number of resource blocks; receiving at least one indicated coefficient via downlink control information, wherein an indicated coefficient of the at least one indicated coefficient is represented by four bits; determining at least one coefficient based on the at least one indicated coefficient; calculating a transport block size column index based on the number of resource blocks and the at least one coefficient; determining the transport block size based at least in part on the transport block size column index; and transmitting the data on the uplink over the unlicensed spectrum based at least in part on the transport block size. identifying data to be transmitted on an uplink over an unlicensed spectrum, wherein the data is associated with a number of resource blocks; receiving at least one indicated coefficient via downlink control information, wherein an indicated coefficient of the at least one indicated coefficient is represented by four bits; determining at least one coefficient based on the at least one indicated coefficient; calculating a transport block size column index based on the number of resource blocks and the at least one coefficient; determining the transport block size based at least in part on the transport block size column index; and transmitting the data on the uplink over the unlicensed spectrum based at least in part on the transport block size.
Air regulation valve adapted to regulate an air flow for an air cushioning receptacle in a motor vehicle, wherein the air regulation valve comprises: - a valve seat, - a valve body, and - a valve passage element with a passage inlet on an inlet side and a passage outlet on an outlet side, wherein - a coil spring is in contact with the valve body and a valve stop on the outlet side, adapted to exert a closing force to press the valve body to the valve seat, characterized in that - a damping body is arranged in an inner spring space of the coil spring such that the damping body radially extends in a winding space between a first coil winding and a second coil winding of the coil spring, - the damping body radially extends in all winding spaces between the coil windings (162, 163) of the coil spring. - a valve seat, - a valve body, and - a valve passage element with a passage inlet on an inlet side and a passage outlet on an outlet side, wherein - a coil spring is in contact with the valve body and a valve stop on the outlet side, adapted to exert a closing force to press the valve body to the valve seat, characterized in that - a damping body is arranged in an inner spring space of the coil spring such that the damping body radially extends in a winding space between a first coil winding and a second coil winding of the coil spring, - the damping body radially extends in all winding spaces between the coil windings (162, 163) of the coil spring.
Feed-processing system (1; 20; 1") for processing animal feed, comprising: - a feed storage device (2; 2'; 30) for storing a pile (8-1, 8-2, 8-n) of animal feed, - a removing device (15; 17'), such as a defacer or unloading roller, for releasing an amount of animal feed from the pile of animal feed in the feed storage device, and comprising a rotatable removing member (16; 16") and a first drive (17; 17") for the removing member, - a displacement device (6; 6'; 5") with a second drive, and configured to move the removing device and the pile of animal feed towards each other, - a sensor for detecting a sensor signal which indicates a relative position of the removing member of the removing device with respect to the pile of animal feed, and - a control unit (19; 19'; 19") configured to control the feed-processing system, in particular the removing device and the displacement device, wherein the control unit is configured to detect whether the removing member and the pile of animal feed are in contact on the basis of the sensor signal, characterised in that the control unit is configured to cause the first drive to drive the removing member in a freewheeling mode during at least a part of the movement of the removing device and the pile of animal feed towards each other, wherein the removing member is not in any operative contact with the pile of animal feed, wherein the sensor measures a sensor signal relating to an operating parameter of the first drive, and wherein the control unit is configured to control the feed-processing system, partly on the basis of whether or not contact was detected. - a feed storage device (2; 2'; 30) for storing a pile (8-1, 8-2, 8-n) of animal feed, - a removing device (15; 17'), such as a defacer or unloading roller, for releasing an amount of animal feed from the pile of animal feed in the feed storage device, and comprising a rotatable removing member (16; 16") and a first drive (17; 17") for the removing member, - a displacement device (6; 6'; 5") with a second drive, and configured to move the removing device and the pile of animal feed towards each other, - a sensor for detecting a sensor signal which indicates a relative position of the removing member of the removing device with respect to the pile of animal feed, and - a control unit (19; 19'; 19") configured to control the feed-processing system, in particular the removing device and the displacement device, wherein the control unit is configured to detect whether the removing member and the pile of animal feed are in contact on the basis of the sensor signal, characterised in that the control unit is configured to cause the first drive to drive the removing member in a freewheeling mode during at least a part of the movement of the removing device and the pile of animal feed towards each other, wherein the removing member is not in any operative contact with the pile of animal feed, wherein the sensor measures a sensor signal relating to an operating parameter of the first drive, and wherein the control unit is configured to control the feed-processing system, partly on the basis of whether or not contact was detected.
A customized patient-specific orthopaedic instrument for facilitating implantation of an acetabular cup prosthesis in a coxal bone of a patient, the customized patient-specific orthopaedic instrument comprising: a customized patient-specific acetabular reaming guide comprising (i) a ring-shaped body having an inner surface defining a cylindrical passageway, in which (i) the ring-shaped body includes a bone-facing surface having a customized patient-specific negative contour that receives a corresponding positive contour of the patient's coxal bone, and (ii) the cylindrical passageway defines a first longitudinal axis that is oriented relative to the bone-facing surface of the ring-shaped body based on a predetermined version angle and a predetermined inclination angle of the acetabular cup prosthesis when implanted in the patient's coxal bone, characterised in that a plurality of arms extend from the ring-shaped body, each of the arms including a bone-facing surface having a customized patient-specific negative contour that receives a corresponding positive contour of the patient's coxal bone, in which the customized patient-specific acetabular reaming guide further comprises a guide housing configured to be secured to the ring-shaped body, the guide housing having a second inner surface defining a longitudinal passageway having a second longitudinal axis which is collinear with the first longitudinal axis when the guide housing is secured to the ring-shaped body, the longitudinal passageway being sized to receive an acetabular reamer surgical tool, and in which the longitudinal passageway has a diameter which is closely paired to a diameter of a shank of the acetabular reamer surgical tool, to thereby substantially limit the movement of the tool to being along the first and second longitudinal axes (128, 194).
Tank device for storing a gaseous medium, in particular hydrogen, having a valve device and a tank container, wherein the valve device has a valve housing, in which valve housing a pilot control valve element which is movable along a longitudinal axis of the tank device is arranged, which pilot control valve element interacts with a first sealing seat in order to open and close a first passage opening and thus forms a pilot control valve, wherein the valve device comprises a solenoid coil, by means of which solenoid coil the pilot control valve element is movable along the longitudinal axis, wherein a main valve element is arranged in the valve housing, which main valve element interacts with a second sealing seat in order to open and close a second passage opening and thus forms a main valve, wherein the pilot control valve element has a transverse bore perpendicular to the longitudinal axis of the tank device, which transverse bore of the pilot control valve element opens into a transverse bore of the main valve element, which transverse bore is arranged perpendicular to the longitudinal axis of the tank device, wherein a driver element is at least partially arranged in the transverse bore of the pilot control valve element and in the transverse bore of the main valve element, characterized in that the second sealing seat is designed as a conical shoulder on the valve housing, and the pilot control valve element has a shoulder, on which shoulder a spring is supported and acts upon the pilot control valve element with a force in the direction of the one end of the pilot control valve element, wherein, when the solenoid coil is not energized, a closing force acts on the pilot control valve element and the main valve element via the spring, and wherein a throttle channel is formed between the valve housing and a protuberance of the main valve element, which protuberance interacts with the second sealing seat in order to open and close the second passage opening, which throttle channel has a conical widening counter to the direction of the second sealing seat, thus forming a throttle effect.
A solid dispersion product, obtainable by a melt-extrusion process, comprising (i) an effective amount of one active ingredient or a mixture of two or more active ingredients and (ii) an effective amount of a hydroxypropyl methylcellulose or a mixture of two or more hydroxypropyl methylcelluloses, wherein said solid dispersion product satisfies the formula 0.35 > Δ H tr (wherein ΔH tr represents the endotherm (J/g) accompanying a transition at an endothermic peak temperature in the range of from 230 °C to 260 °C). (i) an effective amount of one active ingredient or a mixture of two or more active ingredients and (ii) an effective amount of a hydroxypropyl methylcellulose or a mixture of two or more hydroxypropyl methylcelluloses,
A knotless tensionable construct for tissue repairs formed essentially of suture material, the tensionable construct comprising a flexible strand with a closed adjustable loop having an adjustable perimeter, a splice formed within the flexible strand, and an insert threaded through the splice and located within and inside of the splice, characterized in that, said insert is a cut length of suture with a plurality of barbs or spikes disposed along a surface of the cut length of suture, the plurality of barbs or spikes being located inside of the splice, so that, when the closed loop is tightened, the barbs or spikes contained within the splice prevent loosening of the closed loop and lock the closed loop.