mhurhangee/ep-ind-claims huggingface dataset:
A uterine heat therapy system comprising: a shaft comprising a lumen, the shaft being adapted to be inserted through a human cervical canal to place an opening of the lumen within a uterus when the shaft is inserted through the cervical canal; a vapor delivery mechanism adapted to deliver condensable vapor through the lumen to the uterus, the condensable vapor being adapted to condense within the uterus; characterized in that: a seal is disposed at a distal region of the shaft and is adapted to seal the shaft against the cervical canal; and the system further comprises a sealing indicator adapted to provide a user with an indication that the seal has sealed the shaft with the cervical canal. a shaft comprising a lumen, the shaft being adapted to be inserted through a human cervical canal to place an opening of the lumen within a uterus when the shaft is inserted through the cervical canal; a vapor delivery mechanism adapted to deliver condensable vapor through the lumen to the uterus, the condensable vapor being adapted to condense within the uterus; characterized in that: a seal is disposed at a distal region of the shaft and is adapted to seal the shaft against the cervical canal; and the system further comprises a sealing indicator adapted to provide a user with an indication that the seal has sealed the shaft with the cervical canal. a seal is disposed at a distal region of the shaft and is adapted to seal the shaft against the cervical canal; and the system further comprises a sealing indicator adapted to provide a user with an indication that the seal has sealed the shaft with the cervical canal.
A signal processing method, comprising: Sending, by a full-duplex device, a first data signal in a first resource block RB of a first subframe and receiving a second data signal in the first resource block RB; and further sending, by the device, a first reference signal according to first reference information in the first resource block RB and receiving a second reference signal according to second reference information in the first RB, wherein the first reference signal is used for demodulating the first data signal, the second reference signal is used for demodulating the second data signal, and the first reference information is different from the second reference information, wherein the first reference information comprises: a time-frequency resource location occupied by the first reference signal, and sequence information of the first reference signal; and the second reference information comprises: a time-frequency resource location occupied by the second reference signal, and sequence information of the second reference signal. Sending, by a full-duplex device, a first data signal in a first resource block RB of a first subframe and receiving a second data signal in the first resource block RB; and further sending, by the device, a first reference signal according to first reference information in the first resource block RB and receiving a second reference signal according to second reference information in the first RB, wherein the first reference signal is used for demodulating the first data signal, the second reference signal is used for demodulating the second data signal, and the first reference information is different from the second reference information, wherein the first reference information comprises: a time-frequency resource location occupied by the first reference signal, and sequence information of the first reference signal; and the second reference information comprises: a time-frequency resource location occupied by the second reference signal, and sequence information of the second reference signal.
Wireless component of a fire prevention door-retaining system, having a first radio interface for receiving electromagnetic waves that transport power and/or information from a remote component that receives the radio signal of the fire prevention door-retaining system, a measuring device for measuring the signal strength of the received waves, an evaluation device that generates a signal strength value in accordance with the output from the measuring device, and an output device (14 - 17) having a second interface (14 - 16, 17c), which produces or allows a local display, for outputting a signal corresponding to the signal strength value via the second interface (14 - 16, 17c), characterized in that the evaluation device has multiple partial devices (12a1, 12a2), wherein a first partial device (12a1) is designed to generate a first signal strength value in accordance with the output from the measuring device, and wherein a second partial device (12a2) is designed to generate a second signal strength value in accordance with a received signal strength value received from the remote component, to accordingly generate independent signals and to output said signals via the second interface (14 - 16, 17c).
A circuit performing a circulator function intended to be mounted between a transmitter and a receiver, on the one hand, and an antenna element, on the other hand, said circuit being made from substrate integrated waveguide, SIW, technology, said circuit further performing a function of canceling a leakage signal, the circuit includes: - a hybrid component, made up of a first waveguide between a first port and a second port, and a second waveguide between a third port and a fourth port, the first and second waveguides of the hybrid component being mutually coupled; the circuit being characterized in that it includes: - a phase shift component, made up of a U-shaped waveguide (102, 103, 104) between an input port and an output port; and - a coupling component, made up of a first waveguide between a first port and a second port, and a second waveguide between a third port and a fourth port, the first and second waveguides of the coupling component being mutually coupled, the first port of the hybrid component being coupled to the transmitter, the second port of the hybrid component being coupled to the antenna element, the third port of the hybrid component being coupled to the first port of the coupling component through the phase shift component, the second port of the coupling component being coupled to a suitable charge, and the third port of the coupling component being connected to the receiver and the fourth port of the coupling component coinciding with the fourth port of the hybrid component. - a hybrid component, made up of a first waveguide between a first port and a second port, and a second waveguide between a third port and a fourth port, the first and second waveguides of the hybrid component being mutually coupled; the circuit being characterized in that it includes: - a phase shift component, made up of a U-shaped waveguide (102, 103, 104) between an input port and an output port; and - a coupling component, made up of a first waveguide between a first port and a second port, and a second waveguide between a third port and a fourth port, the first and second waveguides of the coupling component being mutually coupled,
A method for detecting a target molecule, comprising forming a capturing complex comprising the target molecule; and binding the capturing complex with a signal amplifier, wherein the capturing complex has a net electrical charge; the signal amplifier has affinity to the capturing complex and has alike net electrical charge of the net electrical charge of the capturing complex, wherein the method further comprises forming the capturing complex with a recognizing molecule which is able to capture the target molecule with affinity, wherein the recognizing molecule comprises a partially neutral single-stranded oligonucleotide comprising at least one electrically neutral nucleotide and at least one negatively charged nucleotide, wherein the method further comprises monitoring an electrical change occurring due to the binding of the capturing complex and the signal amplifier, and wherein the capturing complex is attached on a solid surface or the capturing complex is spaced apart from the solid surface by a distance of about 0 to about 10 nm.
Micro-optical system for the formation of visual images with kinematic effects of motion whereby the micro-optical system is a single-layer phase flat optical element residing on a base and located in a region of the z=0 plane of the Cartesian coordinate system Oxyz, which region is subdivided into elementary areas G ij, i =1, 2,... I, j = 1, 2,... J, whereby when the micro-optical system is illuminated by a point source the observer sees simultaneously the symbols A 1 and A 2, and when the optical element is inclined symbols A 1 and A 2 move in opposite directions over the entire area of the optical element, characterised in that each of the elementary areas have a size no greater than 100 microns, whereby in the elementary areas G ij with even sum (i+j) the phase function of the optical element is equal to the sum of the phase function Φ ij (x,y) of the multigrade kinoform that forms the image of symbol A 1 in the focal plane z=const, and the given function h ij (x,y) = C · ρ α in the polar coordinate system x = ρ · cos φ, y = ρ · sin φ, where C is a given positive parameter and α, a given parameter in the 1 < α < 3 interval, whereby in the areas G ij with odd sum (i+j) the phase function of the optical element is equal to the sum of the given function h ij (x,y) = - C · ρ α and the phase function Φ ij (x,y) of the multigrade kinoform that forms the image of symbol A 2 in the focal plane z=const.
A filter unit for removing matter from an associated process stream, the filter unit comprising: a housing having a first, inlet end and a second, outlet end spaced from one another along a longitudinal axis; and plural elongated, spaced filter elements received in the housing and extending between the inlet and outlet ends thereof and laterally spaced from one another to enhance matter removal from the associated process stream; characterized in that the filter unit further comprises: a single piece flow shaping nozzle module (260; 360; 460) located at one of the inlet and outlet ends of the housing, the single piece flow shaping nozzle module including plural openings (264; 364; 464), one for each of the plural filter elements, for enhancing more uniform flow over the filter elements, the plural openings of the single piece flow shaping nozzle module including enlarged dimension portions (264A; 364A; 464A) adjacent a first face (270; 370; 470) thereof, smaller dimension portions adjacent a second face (272; 372; 472) thereof, and smoothly contoured transition regions interconnecting each enlarged dimension portion with an associated smaller dimension portion in an intermediate region of the single piece flow shaping nozzle module, wherein each of the plural filter elements is received in one of the plural openings (264; 364; 464). a housing having a first, inlet end and a second, outlet end spaced from one another along a longitudinal axis; and plural elongated, spaced filter elements received in the housing and extending between the inlet and outlet ends thereof and laterally spaced from one another to enhance matter removal from the associated process stream; characterized in that the filter unit further comprises: a single piece flow shaping nozzle module (260; 360; 460) located at one of the inlet and outlet ends of the housing, the single piece flow shaping nozzle module including plural openings (264; 364; 464), one for each of the plural filter elements, for enhancing more uniform flow over the filter elements, the plural openings of the single piece flow shaping nozzle module including enlarged dimension portions (264A; 364A; 464A) adjacent a first face (270; 370; 470) thereof, smaller dimension portions adjacent a second face (272; 372; 472) thereof, and smoothly contoured transition regions interconnecting each enlarged dimension portion with an associated smaller dimension portion in an intermediate region of the single piece flow shaping nozzle module, wherein each of the plural filter elements is received in one of the plural openings (264; 364; 464).
A method for producing an iron complex represented by the general formula or below, the method comprising: a step (I-1) of preparing a precursor solution by mixing in the presence of water an iron salt and a compound represented by the following general formula, and a step of mixing the precursor solution with a compound represented by the following general formula or, in the formulae,,, and, R 1, R 2, R 3, R 4, R 5, R 6 and R 7 are each independently a hydrogen atom, an alkyl group, a monovalent alicyclic group or a monovalent aromatic ring group with the proviso that at least one pair of R 1 and R 2, R 2 and R 3, and R 4 and R 5 may be bonded to each other to form a ring. a step (I-1) of preparing a precursor solution by mixing in the presence of water an iron salt and a compound represented by the following general formula, and a step of mixing the precursor solution with a compound represented by the following general formula or,
A method for establishing a data channel, characterized by comprising: allocating, by a first Session Management Function, SMF, entity, first address information to a first user plane entity, and notifying, by the first SMF entity, the first address information and group information of a target group to a Path Management Function, PMF, entity; and acquiring, by the first SMF entity, second address information of at least one second user plane entity in the target group from the PMF entity, and notifying, by the first SMF entity, the second address information of the at least one second user plane entity in the target group to the first user plane entity. allocating, by a first Session Management Function, SMF, entity, first address information to a first user plane entity, and notifying, by the first SMF entity, the first address information and group information of a target group to a Path Management Function, PMF, entity; and acquiring, by the first SMF entity, second address information of at least one second user plane entity in the target group from the PMF entity, and notifying, by the first SMF entity, the second address information of the at least one second user plane entity in the target group to the first user plane entity.
A computer implemented method to detect a data breach in a network-connected computing system, wherein the method comprising the steps of: storing, at a trusted secure computing device, at least a portion of network traffic communicated with the computer system; the computing device generating a copy of data distributed across a network; the computing device identifying information about a network attack stored in the copy of the data; the computing device generating a signature for the network attack based on the information about the network attack, the signature including one or more rules for identifying the network attack in network traffic, wherein the information about the network attack includes at least a portion of data obtained by the network attack and the signature identifies the network attack based on characteristics of the obtained data, and wherein the characteristics of the obtained data include: a number of and order of data fields in the data; or a mechanism employed to structure, format or display the data; identifying an occurrence of the network attack in the stored network traffic based on the signature. storing, at a trusted secure computing device, at least a portion of network traffic communicated with the computer system; the computing device generating a copy of data distributed across a network; the computing device identifying information about a network attack stored in the copy of the data; the computing device generating a signature for the network attack based on the information about the network attack, the signature including one or more rules for identifying the network attack in network traffic, wherein the information about the network attack includes at least a portion of data obtained by the network attack and the signature identifies the network attack based on characteristics of the obtained data, and wherein the characteristics of the obtained data include: a number of and order of data fields in the data; or a mechanism employed to structure, format or display the data; identifying an occurrence of the network attack in the stored network traffic based on the signature.
Automatic lathe with a loading magazine for guiding bar material on said automatic lathe with at least one spindle head (4.10, 11.1) that is displaceable in the longitudinal direction, wherein the loading magazine (4.1) comprises a bar material -guiding channel system (4.2), which system comprises at least one upper channel (4.3), a lower channel (4.4) and a channel opening system (4.5), characterized in that at least the channel system (4,2) of the loading magazine (4.1) is guided on a linear axis (5.2) and thereby coupled to the spindle head (4.10, 11.1), which can be moved in a longitudinal manner, of the automatic lathe such that the bar-guiding channel system can be moved synchronously with the spindle head (4.10, 11.1) in drag operation, wherein a transition tube (4.9) is provided between the channel system (4.2) and the spindle head (4.10, 11.1), wherein the transition tube (4.9) couples the spindle head (4.10, 11.1) of the automatic lathe to the channel system in a non-positive manner, so that the spindle head (4.10, 11.1) and the channel system (4.2) are coupled to one another by a mechanical connection, and/or, wherein the channel system is driven by an NC axis or a linear motor, wherein the control of the NC axis (6.2) or of the linear motor (7.1) takes place by the automatic lathe so that the spindle head (4.10) is coupled to the channel system (4.2) by an electronic connection.
Method for connecting to a service for a user device (10, 11), said method comprising: - registering a user with a trusted entity, in the course of which a contact address and a service identifier are associated with a user identifier and stored by the trusted entity in association for subsequent access; - after registration, the device sending, to a server implementing the service, a request to connect to said service, the user identifier with the trusted entity being associated with said request; - said device receiving, from the trusted entity, a response to said request, said response comprising a datum in relation to a uniform resource locator associated with said service and a single-use connection code and being addressed to the contact address associated with the user identifier with the trusted entity when the user registered, the trusted entity storing, in association with the connection code, the user identifier and the service; - said device sending a request to access a page of the service the address of which corresponds to said datum, the received connection code being associated with said access request; - connecting to said service for the service identifier associated with the user identifier in the trusted entity, following validation of the connection code by the trusted entity, the user identifier corresponding to the one stored by the trusted entity in association with the connection code. - registering a user with a trusted entity, in the course of which a contact address and a service identifier are associated with a user identifier and stored by the trusted entity in association for subsequent access; - after registration, the device sending, to a server implementing the service, a request to connect to said service, the user identifier with the trusted entity being associated with said request; - said device receiving, from the trusted entity, a response to said request, said response comprising a datum in relation to a uniform resource locator associated with said service and a single-use connection code and being addressed to the contact address associated with the user identifier with the trusted entity when the user registered, the trusted entity storing, in association with the connection code, the user identifier and the service; - said device sending a request to access a page of the service the address of which corresponds to said datum, the received connection code being associated with said access request; - connecting to said service for the service identifier associated with the user identifier in the trusted entity, following validation of the connection code by the trusted entity, the user identifier corresponding to the one stored by the trusted entity in association with the connection code.
A method for controlling a continuously variable transmission comprising an input shaft and an output shaft being rotatably arranged about a common central rotation axis, a ring wheel and a sun wheel being coaxially arranged with respect to the central axis, and at least one set of pivotable planet wheels, the pivot angle of the planet wheels determining the transmission ratio of the transmission, wherein: - the transmission operates through drill-free rolling of the planet wheels on the surfaces of the ring wheel and the sun wheel, independently of the pivot angle of the planet wheels, - the ring wheel, planet wheels and the sun wheel are clamped together so that the ring wheel exerts a first normal force on any given planet wheel and the sun wheel exerts a second normal force on said planet wheel, - the method is configured to control said first and second normal forces (NR,NZ), so that, when the transmission operates at a given input speed, a given transmitted torque, and a given constant transmission ratio, a predefined static value of the first and second normal force is applied, and a condition of microslip is applicable to the rolling contacts between the planet wheels and the ring and sun wheel (1,2), characterized in that: - during a continuous increase or decrease of the pivot angle and thereby of the transmission ratio, any force component added to the static values of the first and the second normal force is either zero or smaller than a predefined force component that is required to maintain the microslip condition. - the transmission operates through drill-free rolling of the planet wheels on the surfaces of the ring wheel and the sun wheel, independently of the pivot angle of the planet wheels, - the ring wheel, planet wheels and the sun wheel are clamped together so that the ring wheel exerts a first normal force on any given planet wheel and the sun wheel exerts a second normal force on said planet wheel, - the method is configured to control said first and second normal forces (NR,NZ), so that, when the transmission operates at a given input speed, a given transmitted torque, and a given constant transmission ratio, a predefined static value of the first and second normal force is applied, and a condition of microslip is applicable to the rolling contacts between the planet wheels and the ring and sun wheel (1,2), - during a continuous increase or decrease of the pivot angle and thereby of the transmission ratio, any force component added to the static values of the first and the second normal force is either zero or smaller than a predefined force component that is required to maintain the microslip condition.