mhurhangee/ep-ind-claims huggingface dataset:
A method for an integrated automated quality control analysis of a radioactive tracer compound comprising the following steps: utilizing a single sample injection, the single sample injection being a sample having a particular volume, for a plurality of inline quality control tests (104, 106, 108, 110, 112, 114, 116, 118, 120, 122, 124) being conducted in a single pass, determining a sterility result via a filter membrane integrity test, the filter membrane integrity test being performed without use of the single sample injection and the sterility result being used to confirm filter membrane integrity; conducting a quantitative analysis of the single sample injection via the plurality of quality control tests; determining a measurement value of each of the plurality of quality control parameters; comparing each measurement value of the plurality of quality control parameters with a predetermined corresponding criterion value; determining a cumulative quality rating for the single sample injection based on the plurality of quality control tests and membrane integrity test; generating a report based on the cumulative quality rating for the single sample injection; and releasing the report validating the single sample injection based on the quality rating, wherein the single sample injection is used for every quality control test required for the sample. utilizing a single sample injection, the single sample injection being a sample having a particular volume, for a plurality of inline quality control tests (104, 106, 108, 110, 112, 114, 116, 118, 120, 122, 124) being conducted in a single pass, determining a sterility result via a filter membrane integrity test, the filter membrane integrity test being performed without use of the single sample injection and the sterility result being used to confirm filter membrane integrity; conducting a quantitative analysis of the single sample injection via the plurality of quality control tests; determining a measurement value of each of the plurality of quality control parameters; comparing each measurement value of the plurality of quality control parameters with a predetermined corresponding criterion value; determining a cumulative quality rating for the single sample injection based on the plurality of quality control tests and membrane integrity test; generating a report based on the cumulative quality rating for the single sample injection; and releasing the report validating the single sample injection based on the quality rating, wherein the single sample injection is used for every quality control test required for the sample.
A sight glass lamp for use in potentially explosive areas, said lamp comprising: (a) a lamp housing featuring a lamp chamber which comprises a translucent chamber wall; (b) a light source, preferably an LED device, which is arranged in the lamp chamber and the waste heat of which is dissipated via the lamp housing; (c) a connector housing comprising a pressure-resistant electronics chamber, at least the vast majority of which is arranged in the lamp housing; (d) supply electronics, arranged in the electronics chamber, for supplying the light source with electrical energy; (e) and an insulation (3, 14, 24) for thermally decoupling the connector housing and the lamp housing, (f) wherein the insulation (3, 14, 24) surrounds at least the vast majority of the electronics chamber. (a) a lamp housing featuring a lamp chamber which comprises a translucent chamber wall; (b) a light source, preferably an LED device, which is arranged in the lamp chamber and the waste heat of which is dissipated via the lamp housing; (c) a connector housing comprising a pressure-resistant electronics chamber, at least the vast majority of which is arranged in the lamp housing; (d) supply electronics, arranged in the electronics chamber, for supplying the light source with electrical energy; (e) and an insulation (3, 14, 24) for thermally decoupling the connector housing and the lamp housing, (f) wherein the insulation (3, 14, 24) surrounds at least the vast majority of the electronics chamber.
A cryptographic system for performing encryption/decryption of a given plain/cipher text using transformation tables which transform bit strings of the given plain/cipher text, comprising: a memory for storing an encryption program including the transformation tables each of which contains a predetermined number of entries; a program-controlled processor for executing the encryption program; a cache memory placed between the memory and the program-controlled processor; and characterized in that a targeted transformation table is previously identified from the transformation tables depending on whether the targeted transformation table exhibits a trend of increasing in the number of operation entries as a length of encryption time becomes longer, and an entry loading section (311, 312-313) loads all transformation tables into the cache memory, wherein the targeted transformation table is loaded after the other transformation tables have been loaded into the cache memory. a memory for storing an encryption program including the transformation tables each of which contains a predetermined number of entries; a program-controlled processor for executing the encryption program; a cache memory placed between the memory and the program-controlled processor; and characterized in that a targeted transformation table is previously identified from the transformation tables depending on whether the targeted transformation table exhibits a trend of increasing in the number of operation entries as a length of encryption time becomes longer, and
A method for straightening a tube by using a straightener in which three or more pairs of rolls (Ra1, Rb1, Ra2, Rb2, Ra3, Rb3), each pair of rolls being formed of two concave type rolls oppositely disposed in a vertical direction, are back-to-back disposed in the traveling direction of a tube to be straightened, wherein asymmetric rolls, in which a roll diameter of a left roll shoulder as being a relative maximum diameter portion is different from that of a right roll shoulder as being the other relative maximum diameter portion, are used for both upper and lower rolls provided in at least one pair of rolls (Ra1, Rb1, Ra2, Rb2, Ra3, Rb3), except for a pair of rolls located at foremost entry side with respect to the traveling direction of the tube to be straightened among the plural pairs of rolls, and each asymmetric roll is arranged such that the roll shoulder having a smaller diameter is configured to be located on a tube entry side, while the roll shoulder having a larger diameter being located on a tube exit side, where the roll diameter of the shoulder portion of the asymmetric roll refers to a roll diameter of the relevant shoulder portion when the relevant roll is disposed such that the roll central axis is horizontal, and is observed from a direction normal to said axis.
A fiber producible by melt spinning a composition comprising an intimate admixture of (a) a thermoplastic polymer; and (b) 10 wt% to 40 wt% of an oil, based upon the total weight of the composition, the oil having a melting point of 25°C or less and a boiling point greater than 160°C. (a) a thermoplastic polymer; and (b) 10 wt% to 40 wt% of an oil, based upon the total weight of the composition, the oil having a melting point of 25°C or less and a boiling point greater than 160°C.
A transformer noise performance diagnosis method comprising: a first step of measuring an excitation noise of a stacked iron core included in a transformer and acquiring a frequency spectrum of the excitation noise, the stacked iron core being formed by stacking electrical steel sheets; a second step of, for excitation vibration calculation for the stacked iron core in the transformer using a constitutive equation that includes an elasticity matrix representing a relationship between stress and strain in the stacked iron core in matrix representation, determining transverse elasticity moduli in two planes each including a stacking direction of the stacked iron core in the transformer, the transverse elasticity moduli being included as elements in the elasticity matrix; a third step (S3, S4, S5) of performing the excitation vibration calculation for the stacked iron core in the transformer using the constitutive equation that includes the elasticity matrix including, as the elements, the transverse elasticity moduli determined in the second step and acquiring a frequency spectrum of an excitation vibration of the stacked iron core in the transformer; a fourth step of calculating a difference between the frequency spectrum of the excitation noise of the stacked iron core in the transformer acquired in the first step and the frequency spectrum of the excitation vibration of the stacked iron core in the transformer acquired in the third step, as a difference spectrum; and a fifth step of diagnosing noise performance of the transformer based on the difference spectrum calculated in the fourth step. a first step of measuring an excitation noise of a stacked iron core included in a transformer and acquiring a frequency spectrum of the excitation noise, the stacked iron core being formed by stacking electrical steel sheets; a second step of, for excitation vibration calculation for the stacked iron core in the transformer using a constitutive equation that includes an elasticity matrix representing a relationship between stress and strain in the stacked iron core in matrix representation, determining transverse elasticity moduli in two planes each including a stacking direction of the stacked iron core in the transformer, the transverse elasticity moduli being included as elements in the elasticity matrix; a third step (S3, S4, S5) of performing the excitation vibration calculation for the stacked iron core in the transformer using the constitutive equation that includes the elasticity matrix including, as the elements, the transverse elasticity moduli determined in the second step and acquiring a frequency spectrum of an excitation vibration of the stacked iron core in the transformer; a fourth step of calculating a difference between the frequency spectrum of the excitation noise of the stacked iron core in the transformer acquired in the first step and the frequency spectrum of the excitation vibration of the stacked iron core in the transformer acquired in the third step, as a difference spectrum; and a fifth step of diagnosing noise performance of the transformer based on the difference spectrum calculated in the fourth step.
A cell comprising: a porous supporting body; a porous first electrode layer; a dense solid electrolyte layer that is formed of a ceramic; and a porous second electrode, the porous first electrode layer, the dense solid electrolyte layer, and the porous second electrode being arranged in this order on the porous supporting body; and an amount of Na in the supporting body being 30 × 10 -6 mass% or less, wherein the supporting body contains at least one of Ni and NiO and an inorganic oxide other than NiO. a porous supporting body; a porous first electrode layer; a dense solid electrolyte layer that is formed of a ceramic; and a porous second electrode, the porous first electrode layer, the dense solid electrolyte layer, and the porous second electrode being arranged in this order on the porous supporting body; and an amount of Na in the supporting body being 30 × 10 -6 mass% or less, wherein the supporting body contains at least one of Ni and NiO and an inorganic oxide other than NiO.
An anchor arrangement for a safety line system, the anchor arrangement comprising: a bracket to secure to a structure for mounting the safety line; and a collar arranged to seat in a seat provided on the bracket; wherein the seat provided on the bracket comprises a seat aperture wherein the seat aperture has an inclined bearing surface for contacting the alignment collar, and the collar comprises an alignment collar which has an aperture and an arcuate or curved outer bearing surface, such that the axis of the aperture in the alignment collar re-orientates as the alignment collar adjusts to different seated orientations with respect to the seat provided in the bracket. a bracket to secure to a structure for mounting the safety line; and a collar arranged to seat in a seat provided on the bracket; wherein the seat provided on the bracket comprises a seat aperture wherein the seat aperture has an inclined bearing surface for contacting the alignment collar, and the collar comprises an alignment collar which has an aperture and an arcuate or curved outer bearing surface, such that the axis of the aperture in the alignment collar re-orientates as the alignment collar adjusts to different seated orientations with respect to the seat provided in the bracket.
An opening device configured to be applied to a packaging (2, 3) for pourable products, said opening device comprising: - a pouring spout defining a pouring opening through which to pour, in use, said pourable product; - a cap configured to engage and disengage said pouring spout to respectively close and open said pouring opening; - a closing element closing and/or sealing said pouring opening, formed in one piece with said pouring spout and connected to said pouring spout by a breakable connecting portion configured to break during first opening of said opening device; said closing element comprising a protruding portion extending through said pouring opening and connected to said cap; and - tamper-evidence means fitted to said pouring spout and initially connected to said cap by means of at least one breakable connecting bridge configured to break during first opening of said opening device; characterized in that said cap is hinged to said tamper-evidence means thereby being permanently tethered to said pouring spout. - a pouring spout defining a pouring opening through which to pour, in use, said pourable product; - a cap configured to engage and disengage said pouring spout to respectively close and open said pouring opening; - a closing element closing and/or sealing said pouring opening, formed in one piece with said pouring spout and connected to said pouring spout by a breakable connecting portion configured to break during first opening of said opening device; said closing element comprising a protruding portion extending through said pouring opening and connected to said cap; and - tamper-evidence means fitted to said pouring spout and initially connected to said cap by means of at least one breakable connecting bridge configured to break during first opening of said opening device;
A CMUT transducer cell comprising: a substrate; a first electrode attached to the substrate; a movable membrane layer formed in spaced relationship to the first electrode, said membrane layer having no holes; a second electrode attached to the membrane; and a retention member, overlaying the movable membrane when the membrane is in a precollapsed state, which acts to retain the membrane in its precollapsed state in the absence of a bias voltage. a substrate; a first electrode attached to the substrate; a movable membrane layer formed in spaced relationship to the first electrode, said membrane layer having no holes; a second electrode attached to the membrane; and a retention member, overlaying the movable membrane when the membrane is in a precollapsed state, which acts to retain the membrane in its precollapsed state in the absence of a bias voltage.
Method for operating an air/water heat pump for heating a building and for preparing hot service water, characterised by the steps - measuring the sound level of the environment by means of a sound sensor over a period of several days and determining and storing sound level values with the respective time values, - comparing the sound level values with a threshold value, - identifying and storing time windows in which the threshold value is exceeded, - demand-controlled operation of the air/water heat pump within the time windows. - measuring the sound level of the environment by means of a sound sensor over a period of several days and determining and storing sound level values with the respective time values, - comparing the sound level values with a threshold value, - identifying and storing time windows in which the threshold value is exceeded, - demand-controlled operation of the air/water heat pump within the time windows.
A method for localizing an oral cleaning device within a user's mouth, the method comprising the steps of: estimating, based on sensor information received from a motion identifier, a probability of a first state location of the oral cleaning device within the user's mouth; receiving information from the motion identifier regarding a completed transition to a second state within the user's mouth; comparing the completed transition to a defined set of possible transitions between each of a plurality of possible states within the user's mouth to determine a transition probability; and determining, using a probabilistic graphical model comprising the first state location probability and the transition probability, a probability of the location of the second state. estimating, based on sensor information received from a motion identifier, a probability of a first state location of the oral cleaning device within the user's mouth; receiving information from the motion identifier regarding a completed transition to a second state within the user's mouth; comparing the completed transition to a defined set of possible transitions between each of a plurality of possible states within the user's mouth to determine a transition probability; and determining, using a probabilistic graphical model comprising the first state location probability and the transition probability, a probability of the location of the second state.
A personal computing device, comprising: a network adapter coupled to a computer network; an antenna to receive a wireless signal from a mobile electronic device; a memory; and a processor configured to: compare a signal strength indication (RSSI) value of the received wireless signal to a RSSI threshold value; queue an entire printable file in the memory; provide a notification to the mobile electronic device that the entire printable file is queued in the memory when the RSSI value is less than the RSSI threshold value; and receive an authorization from the mobile electronic device to print the printable file, wherein the processor is additionally configured to send the printable file to the printer in response to receiving the authorization. a network adapter coupled to a computer network; an antenna to receive a wireless signal from a mobile electronic device; a memory; and a processor configured to: compare a signal strength indication (RSSI) value of the received wireless signal to a RSSI threshold value; queue an entire printable file in the memory; provide a notification to the mobile electronic device that the entire printable file is queued in the memory when the RSSI value is less than the RSSI threshold value; and receive an authorization from the mobile electronic device to print the printable file, wherein the processor is additionally configured to send the printable file to the printer in response to receiving the authorization. compare a signal strength indication (RSSI) value of the received wireless signal to a RSSI threshold value; queue an entire printable file in the memory; provide a notification to the mobile electronic device that the entire printable file is queued in the memory when the RSSI value is less than the RSSI threshold value; and receive an authorization from the mobile electronic device to print the printable file, wherein the processor is additionally configured to send the printable file to the printer in response to receiving the authorization.
A polymerizable composition intended to form a polymer composition for an optical material having a refractive index of from 1.54 to 1.58, detemined as indicated in the specification, the polymerizable composition comprising: - at least one non-aromatic polyisocyanate compound comprising at least two -NCO groups; - at least one non-aromatic polythiol compound comprising at least two -SH groups; - at least one polyol comprising a polyether polyol, wherein the polymerizable composition comprises: - from 45% to 60% by weight of said at least one non-aromatic polyisocyanate compound, - from 25% to 35% by weight of said at least one non-aromatic polythiol compound, and - from 1.5% to 5% by weight of said at least one polyether polyol. - at least one non-aromatic polyisocyanate compound comprising at least two -NCO groups; - at least one non-aromatic polythiol compound comprising at least two -SH groups; - at least one polyol comprising a polyether polyol, - from 45% to 60% by weight of said at least one non-aromatic polyisocyanate compound, - from 25% to 35% by weight of said at least one non-aromatic polythiol compound, and - from 1.5% to 5% by weight of said at least one polyether polyol.
A device for cooling a glass strand manufactured by drawing, characterized by at least two cooling chambers which are arranged spaced along the glass strand for cooling the glass strand section by section, wherein the cooling chambers are connected with a facility for feeding or removing a gaseous cooling medium, wherein the glass strand is passed through each cooling chamber and wherein at the pass-through sites an aperture is provided each, wherein the opening thereof is larger than the cross-section of the glass strand for generating a turbulent flow of the gaseous cooling medium which is formed between the opening and the surface of the glass strand.