mhurhangee/patent-ind-claim-en huggingface dataset:
Method for carrying out a dynamic test run for a test setup (PA) on a test bench , the test setup (PA) comprising at least one torque generator (DE), which is mechanically coupled on the test bench with at least one torque sink (DS) by means of at least one coupling element (KE), and wherein the torque generator (DE), the coupling element (KE), and the torque sink (DS) are described with system parameters characterizing the dynamic response (SP), and the test setup (PA) is dynamically excited on the test bench by virtue of a dynamic input signal (u(t)) being applied to the test setup (PA) and, in the process, measured values (MW) of the input signal (u(t)) of the test setup (PA) and of a resultant output signal (y(t)) of the test setup (PA) are recorded, wherein a frequency response (G(Ω k )) of the dynamic response of the test setup (PA) between the output signal (y(t)) and the input signal (u(t)) is determined from the recorded input signal (u(t)) and output signal (y(t)) using a nonparametric identification method, characterized in that a model structure, which corresponds to the order of a numerator and denominator polynomial of the frequency response (G(Ω k )), of a parametric model that maps the input signal (u(t)) onto the output signal (y(t)) is derived from the frequency response (G(Ω k )), that the model structure and a parametric identification method are used to determine at least one system parameter (SP) of the test setup (PA), and that the at least one identified system parameter (SP) is used to perform the test run.
An injection molding system , comprising: a first carrier configured to hold a first mold; a first injector disposed over the first carrier and configured to inject a first polymeric material; a second carrier configured to hold a second mold; a second injector disposed over the second carrier and configured to inject a second polymeric material; characterized in that it further comprises a bridging mechanism disposed between and moveable relative to the first carrier and the second carrier, and configured to receive a third mold from the first carrier or the second carrier and convey the third mold between the first carrier and the second carrier. a first carrier configured to hold a first mold; a first injector disposed over the first carrier and configured to inject a first polymeric material; a second carrier configured to hold a second mold; a second injector disposed over the second carrier and configured to inject a second polymeric material; characterized in that it further comprises a bridging mechanism disposed between and moveable relative to the first carrier and the second carrier, and configured to receive a third mold from the first carrier or the second carrier and convey the third mold between the first carrier and the second carrier.
A wind turbine , comprising a first portion , a second portion which is connectable to the first portion , and a spring element which is connected to the first portion and which protrudes therefrom, wherein the spring element is configured to guide the second portion towards the first portion and, and wherein the spring element is configured to be deformed while the second portion is guided towards the first portion characterized in that the spring element comprises a first spring portion and a second spring portion , wherein an angle (α) between the first spring portion and the second spring portion is between 100° and 170°, 110° and 160°, 120° and 150° or 130° and 140°.
A communication method, comprising: communicating , by a first network function entity, indirectly with a second network function entity via a first service communication proxy, SCP, network element; in a case that the first network function entity determines that the first SCP network element is invalid, detecting , by the first network function entity, a second SCP network element or returning , by the first network function entity, to directly communicate with the second network function entity; in a case that the first network function entity determines that the second SCP network element is valid, switching , by the first network function entity, from the first SCP network element to the second SCP network element, to indirectly communicate with the second network function entity via the second SCP network element; and in a case that the first network function entity determines that the second SCP network element is invalid, returning , by the first network function entity, to directly communicate with the second network function entity, characterized in that the communication method further comprises: transmitting, by the first network function entity to a control function entity or a third network function entity, a first notification message indicating that the first SCP network element or the second SCP network element is invalid. communicating , by a first network function entity, indirectly with a second network function entity via a first service communication proxy, SCP, network element; in a case that the first network function entity determines that the first SCP network element is invalid, detecting , by the first network function entity, a second SCP network element or returning , by the first network function entity, to directly communicate with the second network function entity; in a case that the first network function entity determines that the second SCP network element is valid, switching , by the first network function entity, from the first SCP network element to the second SCP network element, to indirectly communicate with the second network function entity via the second SCP network element; and in a case that the first network function entity determines that the second SCP network element is invalid, returning , by the first network function entity, to directly communicate with the second network function entity, characterized in that the communication method further comprises: transmitting, by the first network function entity to a control function entity or a third network function entity, a first notification message indicating that the first SCP network element or the second SCP network element is invalid.
A device comprising: - at least one electromagnetic focusing cavity , the cavity having a wall defining an internal volume , - at least one transmitting antenna adapted to transmit an electromagnetic wave into the interior volume from an electrical input signal , the cavity being designed by reverberation, from the transmitted electromagnetic wave , a focused electromagnetic wave in a focusing zone located in the interior volume , - at least one input for receiving the electrical input signal , the input being electrically connected to the transmitting antenna , - at least one receiving antenna adapted to receive, in the focusing zone , the focused electromagnetic wave , and to produce an amplified electrical output signal from the focused electromagnetic wave , and - at least one output for receiving the electrical output signal , the output being electrically connected to the receiving antenna , - the internal volume is less than 1.0 m 3 , and - the cavity comprises at least one dielectric material occupying at least 70% of the interior volume , the dielectric material having a complex relative permittivity, the complex permittivity having a real part and an imaginary part, characterised in that the real part measured at 1 GHz being between 20 and 65, and the imaginary part measured at 1 GHz being less than 1/2000. - at least one electromagnetic focusing cavity , the cavity having a wall defining an internal volume , - at least one transmitting antenna adapted to transmit an electromagnetic wave into the interior volume from an electrical input signal , the cavity being designed by reverberation, from the transmitted electromagnetic wave , a focused electromagnetic wave in a focusing zone located in the interior volume , - at least one input for receiving the electrical input signal , the input being electrically connected to the transmitting antenna , - at least one receiving antenna adapted to receive, in the focusing zone , the focused electromagnetic wave , and to produce an amplified electrical output signal from the focused electromagnetic wave , and - at least one output for receiving the electrical output signal , the output being electrically connected to the receiving antenna , - the internal volume is less than 1.0 m 3 , and - the cavity comprises at least one dielectric material occupying at least 70% of the interior volume , the dielectric material having a complex relative permittivity, the complex permittivity having a real part and an imaginary part, characterised in that the real part measured at 1 GHz being between 20 and 65, and the imaginary part measured at 1 GHz being less than 1/2000.
A button-activated medicament delivery device (1; 1-1; 1-2; 1-3) comprising: - a housing arranged to house a medicament container, - a vibration sensor configured to measure vibrations induced by the button-activated medicament delivery device (1; 1-1; 1-2; 1-3) during a medicament delivery, - a button arranged to initiate medicament delivery from the medicament container, and to activate the vibration sensor when initiating the medicament delivery, - processing circuitry configured to obtain a vibration measurement from the vibration sensor and to compare the vibration measurement with a reference vibration measurement characteristic for the button-activated medicament delivery device (1, 1-1; 1-2; 1-3) during medicament delivery, wherein the processing circuitry is configured to generate a time of measurement of the vibration measurement in case the vibration measurement matches the reference vibration measurement, - a storage unit configured to store the time of measurement; - a transmitter configured to wirelessly transmit the time of measurement, characterised in that the medicament delivery device further comprises - an activation switch switchable between an open state, and a closed state enabling powering of the vibration sensor , wherein the button is arranged to set the activation switch in the closed state upon initiation of medicament delivery. - a housing arranged to house a medicament container, - a vibration sensor configured to measure vibrations induced by the button-activated medicament delivery device (1; 1-1; 1-2; 1-3) during a medicament delivery, - a button arranged to initiate medicament delivery from the medicament container, and to activate the vibration sensor when initiating the medicament delivery, - processing circuitry configured to obtain a vibration measurement from the vibration sensor and to compare the vibration measurement with a reference vibration measurement characteristic for the button-activated medicament delivery device (1, 1-1; 1-2; 1-3) during medicament delivery, wherein the processing circuitry is configured to generate a time of measurement of the vibration measurement in case the vibration measurement matches the reference vibration measurement, - a storage unit configured to store the time of measurement; - a transmitter configured to wirelessly transmit the time of measurement, characterised in that the medicament delivery device further comprises - an activation switch switchable between an open state, and a closed state enabling powering of the vibration sensor , wherein the button is arranged to set the activation switch in the closed state upon initiation of medicament delivery.
An aeronautical propulsion device for an aircraft provided with carrier wings for cruise flight, the propulsion device comprising at least two coaxial propellers , which propellers have a fixed and different pitch therebetween, having a first said propeller smaller pitch and having a second said propeller larger pitch, being the first propeller placed in front of the second propeller , in the forward direction of the aircraft characterized in that said propellers are connected to one or more electric motors so as to be driven at least temporarily simultaneously in a counter-rotating way therebetween.
Protection device for integral helmets, wherein the protection device is designed as a tubular muffler which has an upper opening and a lower opening , wherein, in the region of the upper opening, means are provided with which the muffler can be detachably arranged or fastened on or to an access opening of an integral helmet , characterized in that at least one carrying opening is arranged in the region of the lower opening of the tubular muffler .
An electromagnetic coupler including: a substrate; and a first conductor mounted to the substrate for receiving a first electromagnetic signal, the first conductor having a first edge 6 including a first plurality of connected arcuate formations ; a second conductor mounted to the substrate, the second conductor being spaced apart from the first conductor and having a second edge that is opposed to the first edge and includes a second plurality of connected arcuate formations , wherein the first conductor and second conductor are configured such that a second electromagnetic signal is generated in the second conductor ; and the second electromagnetic signal is derived from the first electromagnetic signal; characterised in that the first plurality of connected arcuate formations and second plurality of connected arcuate formations are formed of a plurality of straight line formations adjoining two generally semi-circular portions in a tangential manner. a substrate; and a first conductor mounted to the substrate for receiving a first electromagnetic signal, the first conductor having a first edge 6 including a first plurality of connected arcuate formations ; a second conductor mounted to the substrate, the second conductor being spaced apart from the first conductor and having a second edge that is opposed to the first edge and includes a second plurality of connected arcuate formations , wherein the first conductor and second conductor are configured such that a second electromagnetic signal is generated in the second conductor ; and the second electromagnetic signal is derived from the first electromagnetic signal; characterised in that the first plurality of connected arcuate formations and second plurality of connected arcuate formations are formed of a plurality of straight line formations adjoining two generally semi-circular portions in a tangential manner.
A method of transmitting data at a user equipment, UE , in a wireless communication system, the method comprising: receiving information about a contention-based resource pool; selecting N contention-based resources from among a plurality of contention-based resources included in the contention-based resource pool, based on a size of the data, wherein a contention-based resource is a unit in which one or more UEs perform contention-based transmission; and transmitting the data and a reference signal for the data to a base station, BS , in the N contention-based resources, wherein N is an integer greater or equal to 1 which is indicated by a seed value used for scrambling the reference signal transmitted along with the data. receiving information about a contention-based resource pool; selecting N contention-based resources from among a plurality of contention-based resources included in the contention-based resource pool, based on a size of the data, wherein a contention-based resource is a unit in which one or more UEs perform contention-based transmission; and transmitting the data and a reference signal for the data to a base station, BS , in the N contention-based resources, wherein N is an integer greater or equal to 1 which is indicated by a seed value used for scrambling the reference signal transmitted along with the data.
A process for screening polymer from a polymer-lean stream, whereby the process comprises the steps of A) separating an effluent stream (a) comprising the polymer and a mixture of hydrocarbons into a polymer-rich stream (b) and the polymer-lean vapor stream (c); B) contacting the polymer-lean vapor stream (c) with a first condensed vapor stream (f), wherein the flow direction of the first condensed vapor stream (f) is countercurrent to the flow direction of the polymer-lean vapor stream (c) to produce a cleaned vapor stream (d) and a polymer-comprising condensed vapor stream (e), wherein said effluent stream (a) in step A) is from a solution polymerization process; wherein said polymer comprised in said effluent stream (a) of step A) is an olefin homo- or copolymer; wherein the polymer in the effluent stream (a) is molten; and wherein step B) is performed using a washing column at a temperature in the washing column between 100 and 220°C and at a pressure in the washing column between 0.0 and 15 barg. A) separating an effluent stream (a) comprising the polymer and a mixture of hydrocarbons into a polymer-rich stream (b) and the polymer-lean vapor stream (c); B) contacting the polymer-lean vapor stream (c) with a first condensed vapor stream (f), wherein the flow direction of the first condensed vapor stream (f) is countercurrent to the flow direction of the polymer-lean vapor stream (c) to produce a cleaned vapor stream (d) and a polymer-comprising condensed vapor stream (e), wherein said effluent stream (a) in step A) is from a solution polymerization process; wherein said polymer comprised in said effluent stream (a) of step A) is an olefin homo- or copolymer; wherein the polymer in the effluent stream (a) is molten; and wherein step B) is performed using a washing column at a temperature in the washing column between 100 and 220°C and at a pressure in the washing column between 0.0 and 15 barg.
A system comprising: - a bundle of light fibers , each light fiber comprising at least one connection end to be connected to a light-emitting source , and a longitudinal body adapted both to transmit light inside the light fiber along the longitudinal body and to emit light outside the longitudinal body along the longitudinal body toward a treatment volume (V), - a temperature-modifying system attached to the bundle of light fibers , and adapted to modify temperature in the treatment volume (V) by at least 1°C, characterized in that the temperature-modifying system comprises a phase-change material adapted to change phase within a pre-set temperature range between 37°C and 45°C, and in that the system further comprises a heater adapted to pre-heat the phase change material at a temperature within the pre-set temperature range. - a bundle of light fibers , each light fiber comprising at least one connection end to be connected to a light-emitting source , and a longitudinal body adapted both to transmit light inside the light fiber along the longitudinal body and to emit light outside the longitudinal body along the longitudinal body toward a treatment volume (V), - a temperature-modifying system attached to the bundle of light fibers , and adapted to modify temperature in the treatment volume (V) by at least 1°C,
An organic light emitting display panel comprising: a substrate (SUB) including an active area (A/A) including a plurality of subpixels (SP); an insulating film (INF) over the substrate, and including at least one concave portion (CON) in an area of at least one subpixel (SP); a first electrode (E1) disposed on a side portion (INSS) of the concave portion and on the concave portion in the area of the at least one subpixel; a bank (BANK) including a first part (P1) disposed on a part of the concave portion, and a second part (P2) disposed on the side portion; an organic layer (EL) overlapping the concave portion, and disposed on the first electrode; and a second electrode (E2) disposed on the organic layer and the bank, wherein a capping layer (CPL) is disposed on all or a part of the second electrode, wherein the plurality of subpixels includes at least one blue subpixel, and an organic layer (EL3) disposed in the at least one blue subpixel includes, in all or a part of an area of the at least one blue subpixel, a light emitting dopant (DP), characterized in that the light emitting dopant has a maximum emission wavelength of 457 nm or less and a full width at half maximum (FWHM) of 30 nm or less in the organic layer. a substrate (SUB) including an active area (A/A) including a plurality of subpixels (SP); an insulating film (INF) over the substrate, and including at least one concave portion (CON) in an area of at least one subpixel (SP); a first electrode (E1) disposed on a side portion (INSS) of the concave portion and on the concave portion in the area of the at least one subpixel; a bank (BANK) including a first part (P1) disposed on a part of the concave portion, and a second part (P2) disposed on the side portion; an organic layer (EL) overlapping the concave portion, and disposed on the first electrode; and a second electrode (E2) disposed on the organic layer and the bank, wherein a capping layer (CPL) is disposed on all or a part of the second electrode, wherein the plurality of subpixels includes at least one blue subpixel, and an organic layer (EL3) disposed in the at least one blue subpixel includes, in all or a part of an area of the at least one blue subpixel, a light emitting dopant (DP), characterized in that the light emitting dopant has a maximum emission wavelength of 457 nm or less and a full width at half maximum (FWHM) of 30 nm or less in the organic layer.
A method for supporting, by a master evolved NodeB , MeNB, a local gateway, L-GW, in a wireless communication system, wherein the L-GW is co-located with a secondary evolved NodeB , SeNB, in dual connectivity, the method comprising receiving (S100, S210, S400), from the SeNB via a SeNB Addition Request Acknowledge message, an Internet protocol, IP, address of the L-GW; transmitting (S300, S410, S550, S640) the IP address of the L-GW to a mobility management entity, MME; receiving (S310, S420) a correlation identifier, ID, for the L-GW from the MME; and transmitting (S320, S430) the correlation ID for the L-GW to the SeNB. receiving (S100, S210, S400), from the SeNB via a SeNB Addition Request Acknowledge message, an Internet protocol, IP, address of the L-GW; transmitting (S300, S410, S550, S640) the IP address of the L-GW to a mobility management entity, MME; receiving (S310, S420) a correlation identifier, ID, for the L-GW from the MME; and transmitting (S320, S430) the correlation ID for the L-GW to the SeNB.