mhurhangee/ep-ind-claims huggingface dataset:
Device for centering and guiding at least one drill bit fitted to a dental handpiece while drilling a hole for an implant in the jaw of a patient in cooperation with a surgical guide provided with a tubular drilling bush with an open upper end, comprising: - a tubular guide sleeve, adapted to enter with a small clearance in the tubular drilling bush, - at least a drill bit having a proximal end and a distal free end, with a proximal section for connecting it to the dental handpiece and a distal cutting section, - support means holding the tubular guide sleeve permanently coaxial with and slidable relative to said at least one drill bit to enable the engagement of the guide sleeve in the tubular drilling bush at the latest as soon as said at least one drill bit begins to drill the jaw of the patient, said support means comprising, on the said at least one drill bit, a smooth cylindrical intermediate section with an outside diameter substantially equal to or slightly less than the inside diameter of the guide sleeve and on which the tubular guide sleeve is slidably engaged, characterized in that the guide sleeve includes friction means adapted to slide on the smooth cylindrical intermediate section. - a tubular guide sleeve, adapted to enter with a small clearance in the tubular drilling bush, - at least a drill bit having a proximal end and a distal free end, with a proximal section for connecting it to the dental handpiece and a distal cutting section, - support means holding the tubular guide sleeve permanently coaxial with and slidable relative to said at least one drill bit to enable the engagement of the guide sleeve in the tubular drilling bush at the latest as soon as said at least one drill bit begins to drill the jaw of the patient, said support means comprising, on the said at least one drill bit, a smooth cylindrical intermediate section with an outside diameter substantially equal to or slightly less than the inside diameter of the guide sleeve and on which the tubular guide sleeve is slidably engaged, characterized in that the guide sleeve includes friction means adapted to slide on the smooth cylindrical intermediate section.
A process for preparing a diastereomerically pure dibenzoyl-L-tartrate salt of a compound of formula comprising the steps of (a) mixing a racemic compound of formula with enantiomerically pure dibenzoyl-L-tartaric acid or its monohydrate to form a diastereoisomeric salt, wherein the solvent is a mixture of water and ethanol; and (b) crystallising said salt. (a) mixing a racemic compound of formula with enantiomerically pure dibenzoyl-L-tartaric acid or its monohydrate to form a diastereoisomeric salt, wherein the solvent is a mixture of water and ethanol; and (b) crystallising said salt.
A method comprising: measuring a plurality of pairs of angular coordinates of an object relative to a directional transceiver using either signals transmitted from the directional transceiver to the object or signals transmitted from the object to the directional transceiver, the directional transceiver being at a first location relative to a reference coordinate system and having an orientation relative to the reference coordinate system, each pair of angular coordinates being measured when the object is at a different one of a plurality of second locations, the angular coordinates being measured relative to an axis of a local coordinate system, the orientation of the local coordinate system being defined by the orientation of the directional transceiver and the origin of the local coordinate system being at the first location, wherein at least one of the first location and the orientation of the directional transceiver are unknown; and calculating the unknown at least one of the first location and the orientation of the directional transceiver using the plurality of pairs of angular coordinates and the different second locations, wherein the different second locations used for calculating the unknown at least one of the first location and the orientation of the directional transceiver are known. measuring a plurality of pairs of angular coordinates of an object relative to a directional transceiver using either signals transmitted from the directional transceiver to the object or signals transmitted from the object to the directional transceiver, the directional transceiver being at a first location relative to a reference coordinate system and having an orientation relative to the reference coordinate system, each pair of angular coordinates being measured when the object is at a different one of a plurality of second locations, the angular coordinates being measured relative to an axis of a local coordinate system, the orientation of the local coordinate system being defined by the orientation of the directional transceiver and the origin of the local coordinate system being at the first location, wherein at least one of the first location and the orientation of the directional transceiver are unknown; and calculating the unknown at least one of the first location and the orientation of the directional transceiver using the plurality of pairs of angular coordinates and the different second locations, wherein the different second locations used for calculating the unknown at least one of the first location and the orientation of the directional transceiver are known.
An occupancy sensing electronic thermostat comprising: a thermostat body having a curved exterior front surface; a dot matrix display mounted within the body viewable by a user in front of the front surface; a passive infrared sensor for measuring infrared energy; a shaped Fresnel lens member having a smooth outer surface that extends across only a portion of the exterior front surface of the thermostat body, the Fresnel lens member being shaped and curved so as to conform to and form a part of the curved exterior front surface of the thermostat body, the Fresnel lens member including at least one Fresnel lens portion comprising a plurality of facets formed on an interior surface of the Fresnel lens member to focus infrared energy onto the passive infrared sensor; a first temperature sensor positioned behind the Fresnel lens member and thermally coupled to the Fresnel lens member, for making temperature measurements used for a calculation of ambient temperature; a second temperature sensor positioned within the thermostat body in a location closer than the first temperature sensor to one or more heat generating components within the thermostat body, wherein the calculation of ambient temperature is based at least in part on a comparison between measurements from the first and second temperature sensors; and a microprocessor programmed to detect occupancy based at least in part on measurements made by the passive infrared sensor. a thermostat body having a curved exterior front surface; a dot matrix display mounted within the body viewable by a user in front of the front surface; a passive infrared sensor for measuring infrared energy; a shaped Fresnel lens member having a smooth outer surface that extends across only a portion of the exterior front surface of the thermostat body, the Fresnel lens member being shaped and curved so as to conform to and form a part of the curved exterior front surface of the thermostat body, the Fresnel lens member including at least one Fresnel lens portion comprising a plurality of facets formed on an interior surface of the Fresnel lens member to focus infrared energy onto the passive infrared sensor; a first temperature sensor positioned behind the Fresnel lens member and thermally coupled to the Fresnel lens member, for making temperature measurements used for a calculation of ambient temperature; a second temperature sensor positioned within the thermostat body in a location closer than the first temperature sensor to one or more heat generating components within the thermostat body, wherein the calculation of ambient temperature is based at least in part on a comparison between measurements from the first and second temperature sensors; and a microprocessor programmed to detect occupancy based at least in part on measurements made by the passive infrared sensor.
Valve-actuating device, comprising a manual operating element and a valve which can be actuated by means of the manual operating element, wherein a control element is operatively connected to the manual operating element, wherein the valve can be actuated by a distal end of the control element, and a compensating device is arranged in operative connection between the control element and the manual operating element, which compensating device has a plunger, which is movably guided in a receptacle, and allows a relative movement of the manual operating element with respect to the control element, and wherein a restoring element is present which counters the relative movement with a restoring force, wherein the valve has a pressure chamber which is connected via a filling opening to an inlet of the valve and via an outlet opening to an outlet of the valve, wherein a valve element of the valve that separates the outlet from the inlet can be subjected to load by the pressure chamber, wherein the outlet opening can be opened and closed by a closure element, and wherein a cross-sectional area which can be covered by means of the closure element at the outlet opening is larger than a cross-sectional area of the control element at its outlet from the pressure chamber, characterized in that the pressure chamber of the valve is sealed with respect to the manual operating element by means of a seal which bears against the control element.
Compound of formula: in which: - R 1 is a hexyl group, R 2 is a methyl group; - the groups R 3 and R 4, which may be identical or different, are chosen independently of one another from a hydrogen atom, a methyl group and an ethyl group; - the groups R 5, R 6 and R 7 each represent a hydrogen atom; - n is 0; - m is an integer ranging from 1 to 6, and m is other than 1. - R 1 is a hexyl group, R 2 is a methyl group; - the groups R 3 and R 4, which may be identical or different, are chosen independently of one another from a hydrogen atom, a methyl group and an ethyl group; - the groups R 5, R 6 and R 7 each represent a hydrogen atom; - n is 0; - m is an integer ranging from 1 to 6, and m is other than 1.
An ultra-fine grained, high-strength, high-toughness wire rod having a microstructure comprising: a bainitic ferrite structure having an area fraction of 60% or more; and a cementite structure as a remainder, wherein an average grain diameter of the bainitic ferrite grains is 15 μm or less, wherein the wire rod comprises 0.15 wt% to 0.5 wt% of carbon, 0.1 wt% to 0.2 wt% of silicon (Si), 0.1 wt% to 0.7 wt% of manganese (Mn), and iron (Fe) as well as other unavoidable impurities as a remainder. a bainitic ferrite structure having an area fraction of 60% or more; and a cementite structure as a remainder, wherein an average grain diameter of the bainitic ferrite grains is 15 μm or less, wherein the wire rod comprises 0.15 wt% to 0.5 wt% of carbon, 0.1 wt% to 0.2 wt% of silicon (Si), 0.1 wt% to 0.7 wt% of manganese (Mn), and iron (Fe) as well as other unavoidable impurities as a remainder.
An interleukin 36 receptor (IL-36R)-binding agent comprising (a) an immunoglobulin heavy chain variable region of SEQ ID NO: 22; and (b) an immunoglobulin light chain variable region of SEQ ID NO: 44.
A printing system comprising: a print controller including one or more processors to receive print data, rasterize the print data into bitmap data, analyze objects in each page of bitmap data to determine sizes of objects and generate mapping data for each page of bitmap data that maps locations of areas of page bitmap data having same size objects; a print engine to print the bitmap data to a medium; and a print verification system to capture one or more images of the medium as print verification data, detect one or more defects in the print verification data and determine a size of each of the one or more defects, wherein the print verification system detects the one or more defects by comparing the print verification data to each page of the bitmap data, wherein the print verification system determines the size of a defect by determining a location of the defect in the mapping data and determining whether a defect size is greater than or equal to a minimum defect size threshold being associated with the location and set as a percentage of a size of an object, wherein the print verification system reports the defect upon a determination that the defect has a size that is greater than or equal to the minimum defect size threshold associated with the location. a print controller including one or more processors to receive print data, rasterize the print data into bitmap data, analyze objects in each page of bitmap data to determine sizes of objects and generate mapping data for each page of bitmap data that maps locations of areas of page bitmap data having same size objects; a print engine to print the bitmap data to a medium; and a print verification system to capture one or more images of the medium as print verification data, detect one or more defects in the print verification data and determine a size of each of the one or more defects, wherein the print verification system detects the one or more defects by comparing the print verification data to each page of the bitmap data, wherein the print verification system determines the size of a defect by determining a location of the defect in the mapping data and determining whether a defect size is greater than or equal to a minimum defect size threshold being associated with the location and set as a percentage of a size of an object,
A nitric oxide administration device, comprising: a flow path including an intake port and a supply port, a discharge unit which is arranged in the flow path and which generates NO from air introduced via the intake port, generated NO being supplied via the supply port, a first NO 2 removal unit which is arranged downstream of the discharge unit and which removes NO 2, an NO concentration measurement unit which is arranged downstream of the discharge unit or which is arranged in a flow path for reflux from downstream of the first NO 2 removal unit to upstream of the first NO 2 removal unit, and a concentration estimation unit which is configured to estimate an NO concentration and an NO 2 concentration in a predetermined position based on an oxygen concentration in the atmosphere or the flow path, an NO concentration measured by the NO concentration measurement unit, and a residence time of gas containing NO in the flow path between the first NO 2 removal unit and the predetermined position, wherein the nitric oxide administration device further comprises a cannula which is directly or indirectly connected to the supply port, wherein the predetermined position is an outlet of the cannula, wherein the first NO 2 removal unit and/or a second NO 2 removal unit is arranged between the supply port and the outlet of the cannula, and the concentration estimation unit is configured to estimate that an NO 2 concentration at the first NO 2 removal unit and/or the second NO 2 removal unit is zero. a flow path including an intake port and a supply port, a discharge unit which is arranged in the flow path and which generates NO from air introduced via the intake port, generated NO being supplied via the supply port, a first NO 2 removal unit which is arranged downstream of the discharge unit and which removes NO 2, an NO concentration measurement unit which is arranged downstream of the discharge unit or which is arranged in a flow path for reflux from downstream of the first NO 2 removal unit to upstream of the first NO 2 removal unit, and a concentration estimation unit which is configured to estimate an NO concentration and an NO 2 concentration in a predetermined position based on an oxygen concentration in the atmosphere or the flow path, an NO concentration measured by the NO concentration measurement unit, and a residence time of gas containing NO in the flow path between the first NO 2 removal unit and the predetermined position, wherein the nitric oxide administration device further comprises a cannula which is directly or indirectly connected to the supply port, wherein the predetermined position is an outlet of the cannula, wherein the first NO 2 removal unit and/or a second NO 2 removal unit is arranged between the supply port and the outlet of the cannula, and the concentration estimation unit is configured to estimate that an NO 2 concentration at the first NO 2 removal unit and/or the second NO 2 removal unit is zero.
Control device to control a combustion carried out by a burner assembly depending on a setpoint for an ionization current, the burner assembly comprising a flame area and at least one ionization electrode arranged within the flame area of the burner assembly and an air-control element, which is configured to influence a supply volume of air depending on an air-control signal, and a fuel-control element, which is configured to influence a supply quantity of fuel depending on a fuel-control signal; wherein the control device is configured to receive signals from the at least one ionization electrode and to process them into actual values of an ionization current; wherein the control device is configured to generate a first air-control signal and output it to the air-control element and to generate a fuel-control signal by adjusting the actual values of the ionization current to the ionization-current setpoint and output the signal to the fuel-control element; and to generate a setpoint increased by a specified amount from the ionization-current setpoint and to generate a changed fuel-control signal by adjusting the actual values of the ionization current to the increased setpoint in the case of a first air-control signal; and to evaluate the changed fuel-control signal generated based on the increased setpoint by comparing it with a specified maximum value and based on the evaluation, to detect a blockage, wherein the control device is configured to recognize the blockage based on the evaluation if the fuel-control signal generated based on the increased setpoint exceeds the specified maximum value. wherein the control device is configured to receive signals from the at least one ionization electrode and to process them into actual values of an ionization current; wherein the control device is configured to generate a first air-control signal and output it to the air-control element and to generate a fuel-control signal by adjusting the actual values of the ionization current to the ionization-current setpoint and output the signal to the fuel-control element; and to generate a setpoint increased by a specified amount from the ionization-current setpoint and to generate a changed fuel-control signal by adjusting the actual values of the ionization current to the increased setpoint in the case of a first air-control signal; and to evaluate the changed fuel-control signal generated based on the increased setpoint by comparing it with a specified maximum value and based on the evaluation, to detect a blockage, wherein the control device is configured to recognize the blockage based on the evaluation if the fuel-control signal generated based on the increased setpoint exceeds the specified maximum value.
Mounted compactor with a coupling device with which it can be coupled to an arm of an excavator, and with a compactor plate, wherein the compactor plate has two opposing edge portions, of which for at least part of the time the one has a high nose and the other edge portion is flat, characterised in that a rotation axis of a rotation device, which is arranged between the coupling device and the compactor plate and by means of which the compactor plate can be rotated about an axis which is at least substantially vertical in operation, is arranged closer to the edge portion with the high nose than to the opposite flat edge portion.
A liquid ring compressor (200, 300) comprising: an overhung impeller (208, 302) disposed on an end of an impeller shaft; a radial bearing (210, 306, 308, 314) disposed on the shaft side of the impeller (208, 302); characterized in that, a forward thrust bearing (202, 316) is disposed between the impeller (208, 302) and an inlet gas head, wherein a forward thrust bearing rotor is mounted to a forward face of the overhung impeller (208, 302) and a forward thrust bearing stator is mounted to at least one of an inlet gas head surface or compressor casing (224, 330). an overhung impeller (208, 302) disposed on an end of an impeller shaft; a radial bearing (210, 306, 308, 314) disposed on the shaft side of the impeller (208, 302); characterized in that, a forward thrust bearing (202, 316) is disposed between the impeller (208, 302) and an inlet gas head, wherein a forward thrust bearing rotor is mounted to a forward face of the overhung impeller (208, 302) and a forward thrust bearing stator is mounted to at least one of an inlet gas head surface or compressor casing (224, 330).
A nucleoside analog selected from 6-mercaptopurine, 6-thioguanine and nelarabine for use in a method of treating of a subject with acute lymphoblastic leukemia, wherein (a) if the subject does not have the presence of a detectable NT5C2 gene mutation which results in an associated protein mutation selected from the group consisting of R238W, R238L, R291W, K359Q, S360P, R367Q, L375F, D407A, D407Y and Q523*, the nucleoside analog is 6-mercaptopurine or 6-thioguanine; and (b) if the subject has the presence of a detectable NT5C2 gene mutation which results in an associated protein mutation selected from the group consisting of R238W, R238L, R291W, K359Q, S360P, R367Q, L375F, D407A, D407Y and Q523*, the nucleoside analog is nelarabine. (a) if the subject does not have the presence of a detectable NT5C2 gene mutation which results in an associated protein mutation selected from the group consisting of R238W, R238L, R291W, K359Q, S360P, R367Q, L375F, D407A, D407Y and Q523*, the nucleoside analog is 6-mercaptopurine or 6-thioguanine; and (b) if the subject has the presence of a detectable NT5C2 gene mutation which results in an associated protein mutation selected from the group consisting of R238W, R238L, R291W, K359Q, S360P, R367Q, L375F, D407A, D407Y and Q523*, the nucleoside analog is nelarabine.