mhurhangee/ep-ind-claims huggingface dataset:
Method for analysing and recognizing a sample or properties of a sample by creating a signature of the sample by measurement of chemiluminescence and induced luminescence with the aid of multiple detectors, wherein the sample is a food sample, tissue sample or body fluid from humans or animals, organic material, cultures of eukaryotic or prokaryotic material, comprising the steps: a) measuring the induced luminescence of the sample at one wavelength or at multiple wavelengths after excitation, wherein a multiplicity of measurement values is determined over time; and b) measuring the chemiluminescence of the sample at one wavelength or at multiple wavelengths, wherein a multiplicity of measurement values is determined over time; c) creating a signature of the sample by relating the measurement values, by calculation of the relative values from the measurement values, the result being that the signature is created with linking of the signals from the individual detectors; d) comparing the signature of the sample with signatures of known samples from a database; e) identifying or determining the sample or properties of the sample on the basis of the agreement of the signature obtained according to steps a) to c) with signatures from the database. a) measuring the induced luminescence of the sample at one wavelength or at multiple wavelengths after excitation, wherein a multiplicity of measurement values is determined over time; and b) measuring the chemiluminescence of the sample at one wavelength or at multiple wavelengths, wherein a multiplicity of measurement values is determined over time; c) creating a signature of the sample by relating the measurement values, by calculation of the relative values from the measurement values, the result being that the signature is created with linking of the signals from the individual detectors; d) comparing the signature of the sample with signatures of known samples from a database; e) identifying or determining the sample or properties of the sample on the basis of the agreement of the signature obtained according to steps a) to c) with signatures from the database.
A damping device (20, 20d, 20e, 20f, 20g), comprising: a housing having a chamber and an opening communicated with the chamber, the chamber being filled with a damping medium; a piston arranged in the chamber of the housing, wherein an inner wall of the chamber has a groove, the groove is configured to allow the damping medium to flow within the chamber when the housing is moved relative to the piston, the groove is parallel to a longitudinal direction of the housing and has a first end and a second end opposite to the first end, the groove has a constant cross section area from the first end of the groove to the second end of the groove, the first end of the groove is connected to an end of the housing opposite to the opening of the housing; a base (300, 400, 500, 600) arranged in the chamber of the housing, wherein the base (300, 400, 500, 600) is mounted to the piston; and a ring member arranged between the piston and the base (300, 400, 500, 600); wherein a passage (312, 408, 504, 608) is formed between the ring member and the base (300, 400, 500, 600) for allowing the damping medium to flow through. a housing having a chamber and an opening communicated with the chamber, the chamber being filled with a damping medium; a piston arranged in the chamber of the housing, wherein an inner wall of the chamber has a groove, the groove is configured to allow the damping medium to flow within the chamber when the housing is moved relative to the piston, the groove is parallel to a longitudinal direction of the housing and has a first end and a second end opposite to the first end, the groove has a constant cross section area from the first end of the groove to the second end of the groove, the first end of the groove is connected to an end of the housing opposite to the opening of the housing; a base (300, 400, 500, 600) arranged in the chamber of the housing, wherein the base (300, 400, 500, 600) is mounted to the piston; and a ring member arranged between the piston and the base (300, 400, 500, 600); wherein a passage (312, 408, 504, 608) is formed between the ring member and the base (300, 400, 500, 600) for allowing the damping medium to flow through.
A method of making a piperazine- and aminoethylethanolamine-containing composition comprising steps of: (a) providing a reaction composition comprising diethanolamine; and (b) subjecting the reaction composition to a reductive amination in the presence of ammonia and a catalyst composition, the catalyst composition comprising a support portion and a catalyst portion, the support portion comprising an acidic mixed metal oxide comprising a transitional alumina and a second metal oxide, the catalyst portion comprising a first metal selected from the group consisting of cobalt, nickel, and copper, and a second metal selected from the group consisting of rhenium, ruthenium, rhodium, platinum, palladium, and iridium, wherein reductive amination of diethanolamine forms a product composition comprising piperazine and aminoethylethanolamine wherein the combined amount of piperazine and aminoethylethanolamine in the product composition is 75%wt or greater of the products in the product composition. (a) providing a reaction composition comprising diethanolamine; and (b) subjecting the reaction composition to a reductive amination in the presence of ammonia and a catalyst composition, the catalyst composition comprising a support portion and a catalyst portion, the support portion comprising an acidic mixed metal oxide comprising a transitional alumina and a second metal oxide, the catalyst portion comprising a first metal selected from the group consisting of cobalt, nickel, and copper, and a second metal selected from the group consisting of rhenium, ruthenium, rhodium, platinum, palladium, and iridium, wherein reductive amination of diethanolamine forms a product composition comprising piperazine and aminoethylethanolamine wherein the combined amount of piperazine and aminoethylethanolamine in the product composition is 75%wt or greater of the products in the product composition.
Process for dehumidifing a moist gas mixture G 1, wherein the moist gas mixture G 1 comprises CO 2 and wherein the moist gas mixture G 1 is contacted with a liquid absorption medium A 1 which comprises a mixture of triethylene glycol and at least one salt S selected from Q + A - to obtain a gas mixture G 2 which has a lower water content compared to moist gas mixture G 1 and a liquid absorption medium A 2 which has an elevated water content compared to the liquid absorption medium A 1, wherein Q + is selected from the group consisting of 1,3-dimethylimidazolium cation, 1,3-diethylimidazolium cation, 1-ethyl-3-methylimidazolium cation and A - is an anion selected from the group consisting of acetate, propionate, and wherein in the liquid absorption medium A 1 the ratio of the weight of the triethylene glycol to the total weight of all salts S is in the range 1: 9 to 9: 1.
A moderated neutron sensor, comprising: - a single hydrogen-sensitive neutron detector having a tube shape and having a first volume, said first volume being calculated using a diameter and length of the neutron detector; and - a moderating enclosure positioned around the neutron detector and enclosing a second volume, the moderating enclosure being made from a moderating material having a high hydrogen content, such as water, paraffin, HDPE, ultra-high molecular weight plastic (UHMW), and any combinations thereof, the moderating enclosure having a rectangular cross-section with an interior width and an interior depth, said second volume being determined from said interior width, said interior depth, and an interior length of the moderating enclosure, wherein the interior width, interior depth, and interior length are the distance between opposing interior surfaces of the moderating enclosure; the moderating enclosure having a thickness of between 1.27 cm (0.5 inches) and 5.08 cm (2.0 inches); characterized in that the difference between a depth of the neutron detector and the interior depth of the moderating enclosure is larger than the difference between the length of the neutron detector and the interior length of the moderating enclosure such that the moderating enclosure is spaced a greater distance from the neutron detector along the depth direction than along the length direction; wherein the second volume is between 2 and 80 times larger than the first volume. - a single hydrogen-sensitive neutron detector having a tube shape and having a first volume, said first volume being calculated using a diameter and length of the neutron detector; and - a moderating enclosure positioned around the neutron detector and enclosing a second volume, the moderating enclosure being made from a moderating material having a high hydrogen content, such as water, paraffin, HDPE, ultra-high molecular weight plastic (UHMW), and any combinations thereof, the moderating enclosure having a rectangular cross-section with an interior width and an interior depth, said second volume being determined from said interior width, said interior depth, and an interior length of the moderating enclosure, wherein the interior width, interior depth, and interior length are the distance between opposing interior surfaces of the moderating enclosure; the moderating enclosure having a thickness of between 1.27 cm (0.5 inches) and 5.08 cm (2.0 inches); characterized in that the difference between a depth of the neutron detector and the interior depth of the moderating enclosure is larger than the difference between the length of the neutron detector and the interior length of the moderating enclosure such that the moderating enclosure is spaced a greater distance from the neutron detector along the depth direction than along the length direction; wherein the second volume is between 2 and 80 times larger than the first volume.
A method for adjusting a seat - subject to a pressure exerted by a user on the seat, - the pressure being determined by at least one pneumatic sensor (11 to 18; 31 to 34) and/or by at least one hydraulic sensor (11 to 18; 31 to 34), - wherein a predetermined fill level is allocated to the at least one hydraulic lifting element (1 to 8) and/or to the at least one pneumatic lifting element (1 to 8) before the user exerts the pressure on the seat, - wherein the seat has a plurality of pneumatic sensors (11 to 18; 31 to 34) and/or hydraulic sensors (11 to 18; 31 to 34), at least one pneumatic sensor (11 to 18; 31 to 34) being connected to at least one pneumatic lifting element (1 to 8) and/or at least one hydraulic sensor (11 to 18; 31 to 34) being connected to at least one hydraulic lifting element (1 to 8), - wherein at least one of the following seat parameters is set: - seat length; - seat tilt, seat height, backrest inclination; - upper backrest, seat depth, backrest width; - lumbar support, lumbar support depth, lumbar support height; - headrest, a current pressure profile being established based on the pressure exerted by the user on the seat, which current pressure profile is compared with a predetermined ergonomic pressure profile and the seat is adjusted in the direction of the ergonomic pressure profile. - subject to a pressure exerted by a user on the seat, - the pressure being determined by at least one pneumatic sensor (11 to 18; 31 to 34) and/or by at least one hydraulic sensor (11 to 18; 31 to 34), - wherein a predetermined fill level is allocated to the at least one hydraulic lifting element (1 to 8) and/or to the at least one pneumatic lifting element (1 to 8) before the user exerts the pressure on the seat, - wherein the seat has a plurality of pneumatic sensors (11 to 18; 31 to 34) and/or hydraulic sensors (11 to 18; 31 to 34), at least one pneumatic sensor (11 to 18; 31 to 34) being connected to at least one pneumatic lifting element (1 to 8) and/or at least one hydraulic sensor (11 to 18; 31 to 34) being connected to at least one hydraulic lifting element (1 to 8), - wherein at least one of the following seat parameters is set: - seat length; - seat tilt, seat height, backrest inclination; - upper backrest, seat depth, backrest width; - lumbar support, lumbar support depth, lumbar support height; - headrest, - seat length; - seat tilt, seat height, backrest inclination; - upper backrest, seat depth, backrest width; - lumbar support, lumbar support depth, lumbar support height; - headrest,
A method for analyzing a circuit breaker that includes at least one contact pair that includes at least one movable contact, said method comprising: a. applying a test voltage across a circuit breaker contact pair comprising applying the test voltage from a circuit breaker testing device electrically coupled across the circuit breaker contact; b. measuring an output voltage signal that is proportional to a capacitance of the circuit breaker contact pair, wherein measuring the output voltage comprises measuring the output voltage across a filter circuit; c. changing a state of the circuit breaker contact pair from at least one of an open position to a closed position and the closed position to the open position; and d. detecting a step change of the output voltage that corresponds to the change of state of the circuit breaker, wherein e. the step of applying a voltage across the circuit breaker contact pair comprises applying a high frequency test voltage across the circuit breaker contact pair, wherein the frequency of the test signal is selected to match the resonant frequency of the circuit breaker contact and that of the filter circuit; and f. electrically coupling each circuit breaker contact to ground by means of cables in series with inductances. a. applying a test voltage across a circuit breaker contact pair comprising applying the test voltage from a circuit breaker testing device electrically coupled across the circuit breaker contact; b. measuring an output voltage signal that is proportional to a capacitance of the circuit breaker contact pair, wherein measuring the output voltage comprises measuring the output voltage across a filter circuit; c. changing a state of the circuit breaker contact pair from at least one of an open position to a closed position and the closed position to the open position; and d. detecting a step change of the output voltage that corresponds to the change of state of the circuit breaker, wherein e. the step of applying a voltage across the circuit breaker contact pair comprises applying a high frequency test voltage across the circuit breaker contact pair, wherein the frequency of the test signal is selected to match the resonant frequency of the circuit breaker contact and that of the filter circuit; and f. electrically coupling each circuit breaker contact to ground by means of cables in series with inductances.
A method, comprising: establishing a delay time, wherein the maximum value said delay time can take is based on a number of directional beacon transmissions a wireless communication device is capable of sending within a beacon interval determining whether a beacon transmission is received from a remote device during a time period, said time period beginning at a start of said beacon interval in a distributed wireless communications network, and said time period having a duration of said established delay time, and when a beacon transmission is not received from a remote device during said time period, the wireless communications device sending one or more directional beacon transmissions upon completion of said time period. establishing a delay time, wherein the maximum value said delay time can take is based on a number of directional beacon transmissions a wireless communication device is capable of sending within a beacon interval determining whether a beacon transmission is received from a remote device during a time period, said time period beginning at a start of said beacon interval in a distributed wireless communications network, and said time period having a duration of said established delay time, and when a beacon transmission is not received from a remote device during said time period, the wireless communications device sending one or more directional beacon transmissions upon completion of said time period.
A computer-implemented process for authorizing a passing maneuver comprising: receiving, by a processor (112, 206), a first message, the first message indicating a position of a first industrial vehicle in a work environment; receiving, by the processor (112, 206), a second message, the second message indicating a position of an electronic badge that is detected by the first industrial vehicle; receiving, by the processor (112, 206), a third message, the third message indicating a position of a second industrial vehicle within the work environment; determining, by the processor (112, 206), that the second industrial vehicle intends to pass the first industrial vehicle; determining, by the processor (112, 206) and based upon the position of the first industrial vehicle, the position of the electronic badge, and the position of the second industrial vehicle, an instruction comprising select one of: an instruction related to a passing maneuver; and an instruction not to pass; and communicating the instruction to the second industrial vehicle, wherein the second industrial vehicle performs the received instruction in response to the communication. receiving, by a processor (112, 206), a first message, the first message indicating a position of a first industrial vehicle in a work environment; receiving, by the processor (112, 206), a second message, the second message indicating a position of an electronic badge that is detected by the first industrial vehicle; receiving, by the processor (112, 206), a third message, the third message indicating a position of a second industrial vehicle within the work environment; determining, by the processor (112, 206), that the second industrial vehicle intends to pass the first industrial vehicle; determining, by the processor (112, 206) and based upon the position of the first industrial vehicle, the position of the electronic badge, and the position of the second industrial vehicle, an instruction comprising select one of: an instruction related to a passing maneuver; and an instruction not to pass; and an instruction related to a passing maneuver; and an instruction not to pass; and communicating the instruction to the second industrial vehicle, wherein the second industrial vehicle performs the received instruction in response to the communication.
A multifunctional detabber apparatus for producing a bottle (10, 10a, 10b) in a single cycle, the bottle (10, 10a, 10b) including a main body portion and a bottom surface having a hook projection integrally molded with and extending from the bottom surface in a deployed position and at least one locking channel molded into the bottom surface in order to receive and releasably secure the hook projection in a non-deployed position, the multifunctional detabber apparatus being characterized in that it comprises: a first moveable jaw and a second moveable jaw aligned in parallel and juxtaposed to the first moveable jaw, wherein both the first and second moveable jaws (40, 42) are adapted to at least partially surround the main body portion of the bottle (10, 10a, 10b) and secure the bottle (10, 10a, 10b); a first moveable striker having a sharp edge adapted to create an outer periphery of the hook projection and remove flash, a second moveable striker having a sharp edge adapted to create an opening in the hook projection, and a moveable counter-striker, wherein the first and second moveable strikers (60, 62) are positioned beneath the first moveable jaw and the moveable counter-striker is positioned beneath the second moveable jaw; and a moveable mandrel positioned between the second moveable jaw and the moveable counter-striker, the mandrel having an elongated shaft that extends linearly to bend the hook projection and secure the hook projection in the at least one locking channel in the bottom surface of the bottle (10, 10a, 10b). a first moveable jaw and a second moveable jaw aligned in parallel and juxtaposed to the first moveable jaw, wherein both the first and second moveable jaws (40, 42) are adapted to at least partially surround the main body portion of the bottle (10, 10a, 10b) and secure the bottle (10, 10a, 10b); a first moveable striker having a sharp edge adapted to create an outer periphery of the hook projection and remove flash, a second moveable striker having a sharp edge adapted to create an opening in the hook projection, and a moveable counter-striker, wherein the first and second moveable strikers (60, 62) are positioned beneath the first moveable jaw and the moveable counter-striker is positioned beneath the second moveable jaw; and a moveable mandrel positioned between the second moveable jaw and the moveable counter-striker, the mandrel having an elongated shaft that extends linearly to bend the hook projection and secure the hook projection in the at least one locking channel in the bottom surface of the bottle (10, 10a, 10b).
A laying head assembly (70; 400) for the formation of coils comprising: a laying head configured to rotate about an axis; a pathway defining an enclosed conduit configured to contain an elongated material, the pathway extending in a helical path around the laying head; and at least one support structure coupling the pathway to the laying head, wherein the at least one support structure comprises a lateral profile area (A lat), measured through the widest part of the support structure, and a longitudinal profile area (A long), measured through the longest part of the support structure, and wherein the at least one support structure comprises a ratio [A lat /A long] of not greater than 1, characterized in that each support structure is oriented such that a longitudinal axis of each support structure is perpendicular to a longitudinal axis of the laying head assembly (70; 400) about which the laying head assembly (70; 400) rotates, whereby each support structure shaped as an airfoil is oriented so that a leading end moves through the air before a trailing end as the laying head assembly rotates. a laying head configured to rotate about an axis; a pathway defining an enclosed conduit configured to contain an elongated material, the pathway extending in a helical path around the laying head; and at least one support structure coupling the pathway to the laying head, wherein the at least one support structure comprises a lateral profile area (A lat), measured through the widest part of the support structure, and a longitudinal profile area (A long), measured through the longest part of the support structure, and wherein the at least one support structure comprises a ratio [A lat /A long] of not greater than 1, characterized in that each support structure is oriented such that a longitudinal axis of each support structure is perpendicular to a longitudinal axis of the laying head assembly (70; 400) about which the laying head assembly (70; 400) rotates, whereby each support structure shaped as an airfoil is oriented so that a leading end moves through the air before a trailing end as the laying head assembly rotates.