mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting a pathogen derived analyte species in patient samples, the method comprising the steps of providing samples from different patients, pooling analyte of each sample with a method for pooling analyte from multiple different samples from different sources, performing a method for analyte species detection with the so pooled analyte, wherein if the analyte species is detected in the pooled analyte, another detection is performed for each patient sample individually to identify which of the one or more samples contain(s) the analyte species; and wherein the method for pooling analyte from multiple different samples from different sources comprises the steps of: (a) Contacting a first sample with a magnetic collection device and a magnetic capture particle (or particles), (b) Binding, if not already bound, the magnetic capture particle (or particles) to the magnetic collection device by applying a magnetic force, (c) Removing the first sample from the magnetic collection device, or vice versa, without releasing the magnetic capture particle (or particles) from the magnetic collection device, (d) Contacting the magnetic collection device and the magnetic capture particle (or particles) with at least one further sample, wherein the at least one further sample is different from the first sample, wherein each sample of the first sample and any of the at least one further sample(s) are distinct samples from different patients or subjects. wherein the method for pooling analyte from multiple different samples from different sources comprises the steps of: (a) Contacting a first sample with a magnetic collection device and a magnetic capture particle (or particles), (b) Binding, if not already bound, the magnetic capture particle (or particles) to the magnetic collection device by applying a magnetic force, (c) Removing the first sample from the magnetic collection device, or vice versa, without releasing the magnetic capture particle (or particles) from the magnetic collection device, (d) Contacting the magnetic collection device and the magnetic capture particle (or particles) with at least one further sample, wherein the at least one further sample is different from the first sample, (a) Contacting a first sample with a magnetic collection device and a magnetic capture particle (or particles), (b) Binding, if not already bound, the magnetic capture particle (or particles) to the magnetic collection device by applying a magnetic force, (c) Removing the first sample from the magnetic collection device, or vice versa, without releasing the magnetic capture particle (or particles) from the magnetic collection device, (d) Contacting the magnetic collection device and the magnetic capture particle (or particles) with at least one further sample, wherein the at least one further sample is different from the first sample, wherein each sample of the first sample and any of the at least one further sample(s) are distinct samples from different patients or subjects.
An anaerobic digester comprising, a) a first stage having a flow path in the form of an endless loop, the first stage comprising a means for circulating digestate along the loop; b) a second stage having an undivided mixing area, the second stage comprising a means for mixing digestate; and, c) a passageway between the first stage and the second stage in which digestate is moved from the first stage to the second stage, wherein the second stage is located within the first stage. a) a first stage having a flow path in the form of an endless loop, the first stage comprising a means for circulating digestate along the loop; b) a second stage having an undivided mixing area, the second stage comprising a means for mixing digestate; and, c) a passageway between the first stage and the second stage in which digestate is moved from the first stage to the second stage,
Sheet processing machine comprising a shaping device for processing sheets , the shaping device including at least one shaping point , the sheet processing machine comprising at least one separation device , the at least one separation device being configured to remove at least one offcut piece from at least one sheet of the sheets , the at least one separation device being arranged downstream from the at least one shaping point along a transport path provided for the transport of sheets , at least one inspection device being configured to ascertain an actual state of the at least one sheet of the sheets downstream from the separation device in the transport direction (T) of the sheets , characterized in that the at least one inspection device comprises an evaluation means or being connected to an evaluation means, that the evaluation means is configured to compare the actual state of the at least one sheet to a desired state of the at least one sheet , that the at least one inspection device is arranged upstream from at least one delivery unit and downstream from the at least one separation device in the transport direction (T), that the at least one inspection device is arranged immediately following the separation device in the transport direction (T), that the at least one inspection device is configured to at least partially detect at least one sheet opening of the at least one sheet and/or at least one inner contour of the at least one sheet , defined by at least one sheet opening , and/or at least one outer contour of the at least one sheet , defined by at least one outer edge of the at least one sheet .
A package comprising a container and a cellulose resin composition that includes a thermoplastic resin and cellulose, housed in the container, wherein: the container comprises a high-lignin-content member with a lignin content of 10 mass% or greater and a low-lignin-content member with a lignin content of 1 mass% or lower, and the whole of the surface of the container to be in contact with the cellulose resin composition is constituted of the low-lignin-content member. the container comprises a high-lignin-content member with a lignin content of 10 mass% or greater and a low-lignin-content member with a lignin content of 1 mass% or lower, and the whole of the surface of the container to be in contact with the cellulose resin composition is constituted of the low-lignin-content member.
Apparatus, comprising: a system processor comprising a temperature module and an electropotential module ; an insertion tube , configured to be inserted into a body cavity; a distal tip connected to the insertion tube, the distal tip having an external surface and a cavity formed in the external surface, the cavity being surrounded by a region of the external surface having a curvature, wherein the distal tip is configured to receive radiofrequency (RF) energy at an ablation frequency adapted to perform ablation on the body cavity; a microelectrode configured to fit into the cavity so that a surface of the microelectrode is contoured, located and oriented to conform with the curvature of the region; and at least two conductors of two different materials connected at a junction to form a thermocouple and the conductors are insulated from the distal tip; characterized in that the junction is connected to the microelectrode so as to provide a signal representative of a temperature of the microelectrode to the temperature module and in that at least one of the conductors is connected to the microelectrode and configured to convey an electropotential generated by the body cavity and detected by the microelectrode to the elctropotential module . a system processor comprising a temperature module and an electropotential module ; an insertion tube , configured to be inserted into a body cavity; a distal tip connected to the insertion tube, the distal tip having an external surface and a cavity formed in the external surface, the cavity being surrounded by a region of the external surface having a curvature, wherein the distal tip is configured to receive radiofrequency (RF) energy at an ablation frequency adapted to perform ablation on the body cavity; a microelectrode configured to fit into the cavity so that a surface of the microelectrode is contoured, located and oriented to conform with the curvature of the region; and at least two conductors of two different materials connected at a junction to form a thermocouple and the conductors are insulated from the distal tip; characterized in that the junction is connected to the microelectrode so as to provide a signal representative of a temperature of the microelectrode to the temperature module and in that at least one of the conductors is connected to the microelectrode and configured to convey an electropotential generated by the body cavity and detected by the microelectrode to the elctropotential module .
A method comprising: determining, at a push-to-talk, PTT, device communicatively connected to a talk group over a narrow band network , that the PTT device is in an emergency state; transmitting, from the PTT device to a server , a first request to communicate to the talk group over the narrow band network ; receiving, at the PTT device , a rejection to communicate to the talk group over the narrow band network ; transmitting, from the PTT device to the server , a second request to make an emergency audio transmission to the talk group over a broadband network ; receiving, at the PTT device , permission to make the emergency audio transmission to the talk group over the broadband network ; and transmitting, from the PTT device to the server , the emergency audio transmission over the broadband network . determining, at a push-to-talk, PTT, device communicatively connected to a talk group over a narrow band network , that the PTT device is in an emergency state; transmitting, from the PTT device to a server , a first request to communicate to the talk group over the narrow band network ; receiving, at the PTT device , a rejection to communicate to the talk group over the narrow band network ; transmitting, from the PTT device to the server , a second request to make an emergency audio transmission to the talk group over a broadband network ; receiving, at the PTT device , permission to make the emergency audio transmission to the talk group over the broadband network ; and transmitting, from the PTT device to the server , the emergency audio transmission over the broadband network .
A method for operating a transmitting device, the method comprising: applying, by the transmitting device, codebook and/or signature hopping to at least one of a plurality of sparse codebooks to generate available combination block sequences of sparse codebooks; and applying phase rotation to these combination block sequences to optimize low peak to average power ratio, PAPR; and selecting the PAPR optimized combination block sequences that have a PAPR being lower than a PAPR threshold to produce a plurality of low PAPR combination block sequences; retrieving , by the transmitting device, a plurality of virtual codebooks, each virtual codebook derived from the plurality of low PAPR combination block sequences having a PAPR lower than the PAPR threshold; determining , by the transmitting device, an assignment of one of the plurality of virtual codebooks for the transmitting device; and transmitting , by the transmitting device, a packet towards a receiving device in accordance with the assigned virtual codebook. applying, by the transmitting device, codebook and/or signature hopping to at least one of a plurality of sparse codebooks to generate available combination block sequences of sparse codebooks; and applying phase rotation to these combination block sequences to optimize low peak to average power ratio, PAPR; and selecting the PAPR optimized combination block sequences that have a PAPR being lower than a PAPR threshold to produce a plurality of low PAPR combination block sequences; retrieving , by the transmitting device, a plurality of virtual codebooks, each virtual codebook derived from the plurality of low PAPR combination block sequences having a PAPR lower than the PAPR threshold; determining , by the transmitting device, an assignment of one of the plurality of virtual codebooks for the transmitting device; and transmitting , by the transmitting device, a packet towards a receiving device in accordance with the assigned virtual codebook.
A vehicular imaging system for determining a roadway lane where a vehicle is positioned on a roadway having two or more lanes separated by lane markers, the system comprising: an image sensor configured for capturing images; an image processor configured for receiving captured images; and wherein the image processor is configured to determine roadway width by identifying roadway marker signs erected at the side of the roadway in processed images that are captured by the image sensor , and wherein the image processor is configured to create a road model for identifying the roadway lane where a vehicle is positioned on the roadway, characterized in that : the image processor is further configured to identify at least one oncoming vehicle light to determine a position of oncoming roadway lanes, and the image processor is configured to determine the roadway lane where the vehicle is positioned by using the roadway width and the position of oncoming roadway lanes. an image sensor configured for capturing images; an image processor configured for receiving captured images; and wherein the image processor is configured to determine roadway width by identifying roadway marker signs erected at the side of the roadway in processed images that are captured by the image sensor , and wherein the image processor is configured to create a road model for identifying the roadway lane where a vehicle is positioned on the roadway, the image processor is further configured to identify at least one oncoming vehicle light to determine a position of oncoming roadway lanes, and the image processor is configured to determine the roadway lane where the vehicle is positioned by using the roadway width and the position of oncoming roadway lanes.
An external rotor motor, comprising an electronics housing with integrated motor electronics, a stator and a rotor , wherein the stator comprises a stator bushing and a laminated stator core with motor windings, and wherein the stator bushing is arranged axially between the electronics housing and the rotor , and the laminated stator core with motor windings is arranged on the rotor , and further comprising an air conveyor element which is non-rotatably connected to the rotor and at least one axially extending passage opening arranged in the stator bushing , wherein the air conveyor element is arranged axially between stator bushing and rotor and has a circumferential axial suctioning opening on the side of the stator bushing , wherein the air conveyor element during motor operation suctions an axial air volume stream (Z) through the suctioning opening and the passage opening on an outer wall of the electronics housing , wherein the stator bushing has an axial passage opening in a radially outer marginal region, which is radially arranged on the circumference of the stator bushing such that it is arranged at the same level as a region of the outer wall of the electronics housing , which is to be cooled, and faces this region, and wherein the air conveyor element is designed as a radial fan wheel which axially suctions the air at the suctioning opening and radially expels the air at a radial opening which is circumferential in the circumferential direction.
Method for starting up a control system for a plurality of distributed loads (11-16), for example lights, lamp operating devices or sensors, wherein the loads (11-16) are connected via a bus system to a central command emitter , wherein the central command emitter requests the loads (11-16) to output an identification signal and, if only a single acknowledgment arrives at the command emitter after this request, contacts the corresponding load (11-16) individually, characterized in that the bus system has at least one sub-distribution unit which has an input-side connection facing the central command emitter and at least two output-side connections (21-24) facing the loads (11-16), wherein, upon arrival of acknowledgments at the output-side connections (21-24) in response to the request to output an identification signal, the sub-distribution unit forwards only one of the acknowledgments via the input-side connection .
A method of purifying an Fc region containing target protein from one or more impurities in a sample, the method comprising the steps of: a) contacting the sample with an affinity chromatography media; b) eluting the Fc region containing target protein from the affinity media using a buffer having a pH ranging from 2.0 to 4.0 and a conductivity ranging from 5 to 50 mS; c) contacting the eluate with a cation exchange chromatography media; d) contacting the cation exchange chromatography media with a buffer having a pH lower than 4.0 for a period time suitable for viral inactivation, wherein the buffer conductivity is 5 to 50 mS; e) eluting the Fc region containing target protein from the cation exchange chromatography media using a buffer having a pH ranging from 5.0 to 9.0; f) contacting the eluate with an anion exchange chromatography media; and g) recovering the Fc region containing target protein, wherein the method is a continuous process and the conditions eliminate the need for a holding tank between steps b) and c) and steps e) and f), or a buffer exchange step between steps b) and c) and steps e) and f), or a holding tank and a buffer exchange step between steps b) and c) and steps e) and f). a) contacting the sample with an affinity chromatography media; b) eluting the Fc region containing target protein from the affinity media using a buffer having a pH ranging from 2.0 to 4.0 and a conductivity ranging from 5 to 50 mS; c) contacting the eluate with a cation exchange chromatography media; d) contacting the cation exchange chromatography media with a buffer having a pH lower than 4.0 for a period time suitable for viral inactivation, wherein the buffer conductivity is 5 to 50 mS; e) eluting the Fc region containing target protein from the cation exchange chromatography media using a buffer having a pH ranging from 5.0 to 9.0; f) contacting the eluate with an anion exchange chromatography media; and g) recovering the Fc region containing target protein,
Method for operating a modular multilevel converter, MMC, wherein the method comprises controlling a plurality of submodules (SM1, ..., SMN) of an arm (A) of the MMC for a plurality of subsequent periods, each of the plurality of submodules (SM1, ..., SMN) comprising a respective capacitor (C), wherein the controlling includes for each of the periods - sampling a value of a reference voltage; - determining an integer number n of submodules of the plurality of submodules (SM1, ..., SMN) required to approximate the sampled value; - for each submodule of the subset of n submodules (SM1, ..., SMN), determining a temperature characterizing the respective submodule; - inserting all submodules of the subset of n submodules except for one remaining submodule; - determining, depending on the determined temperatures, a duty ratio; - inserting the remaining submodule for a duration given by the duty ratio; and - identifying a minimum temperature of the determined temperatures and determining the remaining submodule and the duty ratio depending on the minimum temperature. - sampling a value of a reference voltage; - determining an integer number n of submodules of the plurality of submodules (SM1, ..., SMN) required to approximate the sampled value; - for each submodule of the subset of n submodules (SM1, ..., SMN), determining a temperature characterizing the respective submodule; - inserting all submodules of the subset of n submodules except for one remaining submodule; - determining, depending on the determined temperatures, a duty ratio; - inserting the remaining submodule for a duration given by the duty ratio; and - identifying a minimum temperature of the determined temperatures and determining the remaining submodule and the duty ratio depending on the minimum temperature.
A light emitting device package comprising: a first electrode and a second electrode electrically isolated from each other; at least one light emitting device electrically connected to each of the first electrode and the second electrode to emit light having a first wavelength; and phosphors configured to be excited by light having a blue wavelength emitted from the light emitting device to emit light having a second wavelength, wherein the light emitting device and the phosphor are disposed in a cavity, the phosphors comprising: a silicate-based first phosphor emitting light having a yellow wavelength; a nitride-based second phosphor emitting light having a green wavelength; and a nitride-based third phosphor emitting light having a red wavelength, wherein a full width at half maximum of the spectrum of mixed light, emitted from the first phosphor to the third phosphor as the phosphors are excited by light having a blue wavelength, is 110 nm or more, and wherein a weight percent of the first phosphor is within a range of 60% to 75%, a weight percent of the second phosphor is within a range of 20% to 35%, and a weight percent of the third phosphor is within a range of 1% to 3%, wherein the first phosphor includes (Ba, Sr) 2 SiO 4 :Eu, the second phosphor includes La 3 Si 6 N 11 :Ce and the third phosphor includes (Sr, Ca)AlSiN 3 :Eu, and wherein an occupation volume rate of the phosphors in a volume of the entire cavity is 10.5%-11.5%. a first electrode and a second electrode electrically isolated from each other; at least one light emitting device electrically connected to each of the first electrode and the second electrode to emit light having a first wavelength; and phosphors configured to be excited by light having a blue wavelength emitted from the light emitting device to emit light having a second wavelength, wherein the light emitting device and the phosphor are disposed in a cavity, a silicate-based first phosphor emitting light having a yellow wavelength; a nitride-based second phosphor emitting light having a green wavelength; and a nitride-based third phosphor emitting light having a red wavelength, wherein a full width at half maximum of the spectrum of mixed light, emitted from the first phosphor to the third phosphor as the phosphors are excited by light having a blue wavelength, is 110 nm or more, and wherein a weight percent of the first phosphor is within a range of 60% to 75%, a weight percent of the second phosphor is within a range of 20% to 35%, and a weight percent of the third phosphor is within a range of 1% to 3%, wherein the first phosphor includes (Ba, Sr) 2 SiO 4 :Eu, the second phosphor includes La 3 Si 6 N 11 :Ce and the third phosphor includes (Sr, Ca)AlSiN 3 :Eu, and wherein an occupation volume rate of the phosphors in a volume of the entire cavity is 10.5%-11.5%.
Device for generating steam, in particular a supply device for an external cleaning machine which can be connected via at least one flexible hose line and which operates with steam, wherein the device for generating steam has at least one pump as well as a steam generator to which water originating from the pump can be fed during normal operation under a - preferably adjustable - operating pressure and which outputs pressurized steam, in particular dry steam, wherein water from the pump with a cleaning pressure above the operating pressure can be fed intermittently to the steam generator in order to remove deposits, in particular limestone, from the steam generator , characterized in that two line sections (5 to 10, 14 to 19) lead from the pump to the steam generator , which can either be activated via a switch valve or at least two separate pumps , preferably with a uniform construction, are provided, one each of which is allocated to one of the two line sections.