mhurhangee/ep-ind-claims huggingface dataset:
A multi-color microscope system, wherein the system comprises: (i) a first light directing arrangement configured to direct light to a sample; (ii) a second light directing arrangement configured to direct light to the sample; (iii) a dichroic filter configured to block light in at least two ranges of wavelengths such that light that passes through the dichroic filter does not have a wavelength that overlaps with a wavelength of light that reaches the sample via the first light directing arrangement, and does not have a wavelength that overlaps with a wavelength of light that reaches the sample via the second light directing arrangement when the light that passes through the dichroic filter encounters the dichroic filter at a range of incident angles between about 0 degrees and about 90 degrees, wherein the range of incident angles comprises cone angles; and (iv) a detector configured to receive at least two non-overlapping wavelength ranges of the light emission from the sample generated in response to the light directed through the first light directing arrangement, and/or the light directed through the second light directing arrangement, after the light emission passes through the dichroic filter, wherein the multi-color microscope system is contained in a housing less than 16.4 cubic centimeters (1 cubic inch) in size. (i) a first light directing arrangement configured to direct light to a sample; (ii) a second light directing arrangement configured to direct light to the sample; (iii) a dichroic filter configured to block light in at least two ranges of wavelengths such that light that passes through the dichroic filter does not have a wavelength that overlaps with a wavelength of light that reaches the sample via the first light directing arrangement, and does not have a wavelength that overlaps with a wavelength of light that reaches the sample via the second light directing arrangement when the light that passes through the dichroic filter encounters the dichroic filter at a range of incident angles between about 0 degrees and about 90 degrees, wherein the range of incident angles comprises cone angles; and (iv) a detector configured to receive at least two non-overlapping wavelength ranges of the light emission from the sample generated in response to the light directed through the first light directing arrangement, and/or the light directed through the second light directing arrangement, after the light emission passes through the dichroic filter,
A method for handling a packet data unit, PDU, session establishment procedure, the method performed by an access and mobility management function, AMF, entity and comprising: receiving, from a user equipment, UE, a PDU session establishment request including a PDU session identifier and a request type information, which indicates "existing PDU session", related to that the request is for handover of the PDU session between 3GPP access and non-3GPP access; discovering a session management function, SMF, identifier that is stored associated with the PDU session identifier; based on a determination that a SMF entity corresponding to the SMF identifier and the AMF entity belong to a same Public Land Mobile Network, PLMN, determining that the PDU session handover is possible and to accept the PDU session establishment request, wherein the determination that the SMF entity and the AMF entity belong to the same PLMN is based on the SMF identifier; and based on a determination, which is based on the identifier of the SMF entity that the SMF entity corresponding to the SMF identifier and the AMF entity do not belong to the same PLMN or the SMF entity and the AMF entity do not belong to a home PLMN, HPLMN, determining that the PDU session handover is impossible and to reject the PDU session establishment request. receiving, from a user equipment, UE, a PDU session establishment request including a PDU session identifier and a request type information, which indicates "existing PDU session", related to that the request is for handover of the PDU session between 3GPP access and non-3GPP access; discovering a session management function, SMF, identifier that is stored associated with the PDU session identifier; based on a determination that a SMF entity corresponding to the SMF identifier and the AMF entity belong to a same Public Land Mobile Network, PLMN, determining that the PDU session handover is possible and to accept the PDU session establishment request, wherein the determination that the SMF entity and the AMF entity belong to the same PLMN is based on the SMF identifier; and based on a determination, which is based on the identifier of the SMF entity that the SMF entity corresponding to the SMF identifier and the AMF entity do not belong to the same PLMN or the SMF entity and the AMF entity do not belong to a home PLMN, HPLMN, determining that the PDU session handover is impossible and to reject the PDU session establishment request.
A reduced noise fan stationary blade of a turbofan engine mountable within the rear flow of a moving blade of the turbofan engine, characterized in that the reduced noise fan stationary blade has a negative lean angle θ L leaning towards a pressure side of the reduced noise fan stationary blade in the vicinity of a hub, a positive lean angle θ L leaning towards a suction side of the reduced noise fan stationary blade in other regions on a tip side, and a positive sweep angle θ S, wherein said positive sweep angle θ S is about 15° or more, and less than 40° on the hub side, and is about 0° or more, and 20° or less on the tip side.
Apparatus for operating a simulator with a special impression of reality for learning how to control a vehicle, in particular an aircraft, moving in three-dimensional reality, having a vehicle cab modeled on the vehicle to be simulated and having real operator control elements, having a 6-axis industrial robot, which, on the one hand, is connected to the vehicle cab and having a device for translatory longitudinal movement, characterized in that said apparatus has the following features: a) the 6-axis industrial robot is connected, on the other hand, to the ground via a device for translatory lateral movement which is movably mounted at a right angle on the device for translatory longitudinal movement, b) a display modeled on the contours of the vehicle cab serves to transmit a simulated external view on the basis of OLED technology, c) for the purposes of simulating hazardous situations which occur in practice, controllable systems for artificially producing smoke, for producing shaking movements, for sound generation and for producing light phenomena in the vehicle cab are provided, d) for detecting human stress reactions, controllable systems in the vehicle cab for sensing the resistance of the skin and for detecting movements of persons and physiognomy are provided, e) a sensor for detecting the actual movements of the vehicle cab, f) a system for externally operating and controlling the simulator, which system also registers the reactions of a fight trainer. a) the 6-axis industrial robot is connected, on the other hand, to the ground via a device for translatory lateral movement which is movably mounted at a right angle on the device for translatory longitudinal movement, b) a display modeled on the contours of the vehicle cab serves to transmit a simulated external view on the basis of OLED technology, c) for the purposes of simulating hazardous situations which occur in practice, controllable systems for artificially producing smoke, for producing shaking movements, for sound generation and for producing light phenomena in the vehicle cab are provided, d) for detecting human stress reactions, controllable systems in the vehicle cab for sensing the resistance of the skin and for detecting movements of persons and physiognomy are provided, e) a sensor for detecting the actual movements of the vehicle cab, f) a system for externally operating and controlling the simulator, which system also registers the reactions of a fight trainer.
Method for the purification of nucleic acids, comprising DNA, in particular plasmid DNA, comprising the following steps a) Introducing a nucleic acid mixture comprising DNA into a device for the purification of nucleic acids comprising a column combination consisting of: i. an open hollow body with an inlet opening and an outlet opening, which is arranged on a further ii. open hollow body with an inlet opening and an outlet opening, with a membrane contained therein, wherein as membrane a glass fiber membrane with a pore size in an interval of 2 - 4 μm is fitted in the hollow body, b) Binding the DNA nucleic acids to the membrane in the hollow body in the presence of an aliphatic alcohol with 1 to 5 carbon atoms, c) Eluting the DNA nucleic acids from the membrane in the hollow body with a known elution buffer. a) Introducing a nucleic acid mixture comprising DNA into a device for the purification of nucleic acids comprising a column combination consisting of: i. an open hollow body with an inlet opening and an outlet opening, which is arranged on a further ii. open hollow body with an inlet opening and an outlet opening, with a membrane contained therein, wherein as membrane a glass fiber membrane with a pore size in an interval of 2 - 4 μm is fitted in the hollow body, i. an open hollow body with an inlet opening and an outlet opening, which is arranged on a further ii. open hollow body with an inlet opening and an outlet opening, with a membrane contained therein, wherein as membrane a glass fiber membrane with a pore size in an interval of 2 - 4 μm is fitted in the hollow body, b) Binding the DNA nucleic acids to the membrane in the hollow body in the presence of an aliphatic alcohol with 1 to 5 carbon atoms, c) Eluting the DNA nucleic acids from the membrane in the hollow body with a known elution buffer.
Dental implant configured to be inserted in a hole in jaw bone and to be at least partially situated in the bone tissue when implanted, comprising: a coronal region; an apical region; a longitudinal axis extending from the coronal region of the dental implant to the apical region of the dental implant; an implant surface configured to form an interface between an implant material and the oral environment; and a surface layer formed on at least part of said implant surface, and wherein at least part of said surface layer comprises crystalline titanium oxide in the anatase phase; wherein the surface area roughness Sa and the pore size of the implant surface on which said surface layer is formed, increase from the coronal region toward the apical region of the dental implant along the longitudinal axis; wherein said surface layer has a thickness that is larger in the apical region than in the coronal region. a coronal region; an apical region; a longitudinal axis extending from the coronal region of the dental implant to the apical region of the dental implant; an implant surface configured to form an interface between an implant material and the oral environment; and a surface layer formed on at least part of said implant surface, and wherein at least part of said surface layer comprises crystalline titanium oxide in the anatase phase; wherein the surface area roughness Sa and the pore size of the implant surface on which said surface layer is formed, increase from the coronal region toward the apical region of the dental implant along the longitudinal axis; wherein said surface layer has a thickness that is larger in the apical region than in the coronal region.
A printer display device, which is configured to be fixed to and removable from an outer surface other than a bottom surface of a printer, wherein the printer display device is further configured to have at least data related to predetermined information communicated thereto through a connection cable connected between a printer housing and the printer display device; and wherein the printer display device further includes a cable groove in which the connection cable can be fitted and received. the printer display device is further configured to have at least data related to predetermined information communicated thereto through a connection cable connected between a printer housing and the printer display device; and wherein the printer display device further includes a cable groove in which the connection cable can be fitted and received.
A method for monitoring a blow-moulding unit of a plurality of blow-moulding stations (BS1-BS9) for producing a hollow body, wherein each blow-moulding station (BS1-BS9) has at least one process valve unit for feeding a process fluid into a preform of the hollow body under process pressure, and wherein the process valve unit has at least one valve, and wherein each blow-moulding station (BS1-BS9) is associated with at least one sensor (41, 90, 91, 92, 93), wherein the method has at least the following steps: - detecting at least one first sensor value in each blow-moulding station (BS1-BS9), - transmitting a first data value, which is associated with the at least one detected first sensor value of each blow-moulding station (BS1-BS9), to a data processing unit (6, 8), and - determining a first statistical average of the transmitted first data values in the data processing unit (6, 8). wherein each blow-moulding station (BS1-BS9) has at least one process valve unit for feeding a process fluid into a preform of the hollow body under process pressure, and wherein the process valve unit has at least one valve, and wherein each blow-moulding station (BS1-BS9) is associated with at least one sensor (41, 90, 91, 92, 93), wherein the method has at least the following steps: - detecting at least one first sensor value in each blow-moulding station (BS1-BS9), - transmitting a first data value, which is associated with the at least one detected first sensor value of each blow-moulding station (BS1-BS9), to a data processing unit (6, 8), and - determining a first statistical average of the transmitted first data values in the data processing unit (6, 8). - detecting at least one first sensor value in each blow-moulding station (BS1-BS9), - transmitting a first data value, which is associated with the at least one detected first sensor value of each blow-moulding station (BS1-BS9), to a data processing unit (6, 8), and - determining a first statistical average of the transmitted first data values in the data processing unit (6, 8).
An excision device configured to excise living tissue by ejecting liquid toward the living tissue comprising: a) a liquid supplying unit (300, 302, 304) configured to supply liquid to be ejected; b) a liquid chamber configured to be filled with the supplied liquid; c) an ejection nozzle connected to the liquid chamber; d) a drive member configured to be deformed in the direction to reduce the volume of the liquid chamber when a drive voltage is applied more than a case where the drive voltage is not applied; e) a liquid ejecting unit configured to eject the liquid in the liquid chamber in a pulsed manner from the ejection nozzle by applying the drive voltage to the drive member in a state in which the liquid chamber is filled with the supplied liquid; and characterized in that the excision device comprises f) an air-bubble detecting unit configured to detect air bubbles in the liquid chamber by measuring an electric current flowing in the drive member when the drive voltage is applied to the drive member. a) a liquid supplying unit (300, 302, 304) configured to supply liquid to be ejected; b) a liquid chamber configured to be filled with the supplied liquid; c) an ejection nozzle connected to the liquid chamber; d) a drive member configured to be deformed in the direction to reduce the volume of the liquid chamber when a drive voltage is applied more than a case where the drive voltage is not applied; e) a liquid ejecting unit configured to eject the liquid in the liquid chamber in a pulsed manner from the ejection nozzle by applying the drive voltage to the drive member in a state in which the liquid chamber is filled with the supplied liquid; and f) an air-bubble detecting unit configured to detect air bubbles in the liquid chamber by measuring an electric current flowing in the drive member when the drive voltage is applied to the drive member.
An assembly for a gas turbine engine, comprising: an outer structure; an inner structure within the outer structure, the inner structure including a port; a fluid transfer tube including an inner tube end, an outer tube end, an inner coupling and an outer coupling, the fluid transfer tube extending from the inner tube end through a bore of the shield and at least into the port to the outer tube end, the inner coupling disposed at the inner tube end and mated with the inner structure through a cone seal interface, and the outer coupling disposed at the outer tube end and attached to the outer structure; and a shield including a shield mount and a sleeve, characterized in having the shield mount attached to the outer structure, the sleeve extending from the shield mount through an aperture in the outer structure to a distal end of the shield, and the sleeve mated with the port at the distal end through a slip joint interface where a cylindrical sleeve surface of the sleeve contacts a cylindrical port surface of the port. an outer structure; an inner structure within the outer structure, the inner structure including a port; a fluid transfer tube including an inner tube end, an outer tube end, an inner coupling and an outer coupling, the fluid transfer tube extending from the inner tube end through a bore of the shield and at least into the port to the outer tube end, the inner coupling disposed at the inner tube end and mated with the inner structure through a cone seal interface, and the outer coupling disposed at the outer tube end and attached to the outer structure; and a shield including a shield mount and a sleeve, characterized in having the shield mount attached to the outer structure, the sleeve extending from the shield mount through an aperture in the outer structure to a distal end of the shield, and the sleeve mated with the port at the distal end through a slip joint interface where a cylindrical sleeve surface of the sleeve contacts a cylindrical port surface of the port.
A method for determining coordinate positions of light-emitting particles that label at least one component of a sample specimen using a light microscope (100, 1000), the method comprising: activating a subset of the light-emitting particles by illuminating the sample with an activation light beam that stochastically activates the subset of light-emitting particles; capturing a series of images (1302, 2002) of the light emitted from the subset of particles illuminated with an excitation light beam for the illumination pattern in different positions within the sample forming a three-dimensional structured illumination pattern; generating a resolved image of the light-emitting particles from the series of images (1302, 2002); and repeatedly activating, capturing and generating to obtain a number of resolved images that are processed to obtain a super-resolution image of the at least one component; wherein generating the resolved image further comprises: summing the series of images (1302, 2002) to generate a summed image (1316, 2016) of the series of images (1302, 2002) of each subset of particles; filtering the summed image (1316, 2016) to generate a filtered image (1328, 2022); determining centroid coordinates for each subset of particles in the filtered image (1328, 2022); and resolving the centroid coordinates to generate the resolved image. activating a subset of the light-emitting particles by illuminating the sample with an activation light beam that stochastically activates the subset of light-emitting particles; capturing a series of images (1302, 2002) of the light emitted from the subset of particles illuminated with an excitation light beam for the illumination pattern in different positions within the sample forming a three-dimensional structured illumination pattern; generating a resolved image of the light-emitting particles from the series of images (1302, 2002); and repeatedly activating, capturing and generating to obtain a number of resolved images that are processed to obtain a super-resolution image of the at least one component; wherein generating the resolved image further comprises: summing the series of images (1302, 2002) to generate a summed image (1316, 2016) of the series of images (1302, 2002) of each subset of particles; filtering the summed image (1316, 2016) to generate a filtered image (1328, 2022); determining centroid coordinates for each subset of particles in the filtered image (1328, 2022); and resolving the centroid coordinates to generate the resolved image. summing the series of images (1302, 2002) to generate a summed image (1316, 2016) of the series of images (1302, 2002) of each subset of particles; filtering the summed image (1316, 2016) to generate a filtered image (1328, 2022); determining centroid coordinates for each subset of particles in the filtered image (1328, 2022); and resolving the centroid coordinates to generate the resolved image.
Method for determining a time offset measurement value, which indicates the time offset between a first measurement value, which has been detected using a measurement device arranged at a first location in an electrical line or an electrical network, and at least one second measurement value, which has been identified using at least one measurement device arranged at a second location in the electrical line or the electrical network, wherein - a first measurement vector ( U A) is identified as the first measurement value and a second measurement vector ( U B) is identified as the second measurement value, - a line-based phase difference value, which, in the case of synchronous measurement vector measuring, describes the line-based phase offset (φ U,AB) between the first and second measurement vector, and a measurement-device-based phase difference value (φ F), which, in the event of asynchronous measurement vector determination by the measurement devices (21, 22), is based on a time offset between the measurement vectors, are determined with the first and second measurement vector using a line model that describes the line section or network section between the first and second location (11, 12) and the time offset measurement value is formed by the measurement-device-based phase difference value (φ F) alone or using the measurement-device-based phase difference value (φ F); and wherein the line model is described by a mesh equation of an electrical mesh delimited by the first and second location (11, 12) or at least also comprises a mesh of this kind, characterized in that - a cost function ( ƒ ( φ Opt)), which is based on the mesh equation and has a phase offset between the measurement vectors as a function parameter, is reduced and - the optimum function parameter value ( φ Opt) that leads to the occurrence of the minimum value of the cost function is considered to be the measurement-device-based phase difference value. - a first measurement vector ( U A) is identified as the first measurement value and a second measurement vector ( U B) is identified as the second measurement value, - a line-based phase difference value, which, in the case of synchronous measurement vector measuring, describes the line-based phase offset (φ U,AB) between the first and second measurement vector, and a measurement-device-based phase difference value (φ F), which, in the event of asynchronous measurement vector determination by the measurement devices (21, 22), is based on a time offset between the measurement vectors, are determined with the first and second measurement vector using a line model that describes the line section or network section between the first and second location (11, 12) and - a cost function ( ƒ ( φ Opt)), which is based on the mesh equation and has a phase offset between the measurement vectors as a function parameter, is reduced and - the optimum function parameter value ( φ Opt) that leads to the occurrence of the minimum value of the cost function is considered to be the measurement-device-based phase difference value.