mhurhangee/patent-ind-claim-en huggingface dataset:
A coupling by means of which two rail vehicles or two rail vehicle modules can be connected to one another, comprising a sensor or a sensor arrangement for determining the angle between the longitudinal axes (X1, X2) of the rail vehicles or rail vehicle modules, the sensor being an angle sensor, and, the coupling being embodied such that the two rail vehicles or two rail vehicle modules can be rotated relative to one another about a vertically upwardly standing axis (Z), called the Z axis, characterized in that the two rail vehicles or two rail vehicle modules can be rotated relative to one another - about the longitudinal axis (X1, X2) of one of the rail vehicles or rail vehicle modules , called the X axis, and/or - about an axis (Y) standing transverse to one of the rail vehicles or rail vehicle modules and perpendicular to the Z axis and X axis, called the Y axis, wherein the X axis and/or the Y axis intersect the Z axis at one point, which is called the articulation point (G), wherein the sensor is arranged at the site of the articulation point (G) or in the vicinity of the articulation point (G). - about the longitudinal axis (X1, X2) of one of the rail vehicles or rail vehicle modules , called the X axis, and/or - about an axis (Y) standing transverse to one of the rail vehicles or rail vehicle modules and perpendicular to the Z axis and X axis, called the Y axis, wherein
A method of transferring thermal storage media from a media store to a heat exchange chamber , or vice versa, across a pressure differential, in a pumped heat energy storage apparatus , the pumped heat energy storage apparatus comprising: at least one transfer chamber ; at least one working chamber ; and a working fluid circulation pathway , the working fluid circulation pathway comprising a heat exchanger which comprises the heat exchange chamber, wherein the thermal storage media is a solid and the working fluid is brought into direct contact, as a gas, with the thermal storage media in the heat exchange chamber and thereby transfers heat to or from the thermal storage media, and wherein the method comprises receiving thermal storage media into the at least one transfer chamber in the presence of gaseous working fluid, and further comprises the step of decreasing or increasing the volume of the at least one working chamber to thereby compress or expand working fluid in the at least one transfer chamber while the at least one transfer chamber is fluidically connected to the at least one working chamber, characterised in that the method comprises recovering energy from the work done by working fluid on the at least one working chamber while the working fluid expands. at least one transfer chamber ; at least one working chamber ; and a working fluid circulation pathway , the working fluid circulation pathway comprising a heat exchanger which comprises the heat exchange chamber, wherein the thermal storage media is a solid and the working fluid is brought into direct contact, as a gas, with the thermal storage media in the heat exchange chamber and thereby transfers heat to or from the thermal storage media, and wherein the method comprises receiving thermal storage media into the at least one transfer chamber in the presence of gaseous working fluid, and further comprises the step of decreasing or increasing the volume of the at least one working chamber to thereby compress or expand working fluid in the at least one transfer chamber while the at least one transfer chamber is fluidically connected to the at least one working chamber, characterised in that the method comprises recovering energy from the work done by working fluid on the at least one working chamber while the working fluid expands.
A method for transmitting data, the method comprising: designing , by a transmitting device, a first filter truncated by a first soft truncation function with a first roll-off parameter specifying a first rate in which the first soft truncation function transitions to zero; designing, by the transmitting device, a second filter truncated by a second soft truncation function with a second roll-off parameter specifying a second rate in which the second soft truncation function transitions to zero; filtering , by the transmitting device, a first OFDM data signal with the first filter; filtering, by the transmitting device, a second OFDM data signal with the second filter; transmitting , by the transmitting device, the filtered first OFDM data signal; and transmitting, by the transmitting device, the filtered second OFDM data signal, wherein the filtered first OFDM data signal and the filtered second OFDM data signal are transmitted in different frequency bands, characterized in that the filtered first OFDM data signal and the filtered second OFDM data signal are transmitted simultaneously. designing , by a transmitting device, a first filter truncated by a first soft truncation function with a first roll-off parameter specifying a first rate in which the first soft truncation function transitions to zero; designing, by the transmitting device, a second filter truncated by a second soft truncation function with a second roll-off parameter specifying a second rate in which the second soft truncation function transitions to zero; filtering , by the transmitting device, a first OFDM data signal with the first filter; filtering, by the transmitting device, a second OFDM data signal with the second filter; transmitting , by the transmitting device, the filtered first OFDM data signal; and transmitting, by the transmitting device, the filtered second OFDM data signal, wherein the filtered first OFDM data signal and the filtered second OFDM data signal are transmitted in different frequency bands, characterized in that the filtered first OFDM data signal and the filtered second OFDM data signal are transmitted simultaneously.
A base station including bidirectional data transmission to a node , comprising: means for receiving a data packet transmitted by the node at a node transmission time, the node transmission time being derived from a timer of the node ; means for determining the node transmission time on the basis of the data packet received and for determining a time deviation of the timer of the node on the basis of a time deviation between the determined node transmission time and a set node transmission time associated with the node ; means for transmitting a data packet to the node , the data packet comprising the determined time deviation of the timer of the node or a correction value derived therefrom; wherein the means for transmitting the data packet to the node is configured to transmit the data packet to the node , for synchronization of a node receiving time, at a base station transmission time or comprising a value derived therefrom. means for receiving a data packet transmitted by the node at a node transmission time, the node transmission time being derived from a timer of the node ; means for determining the node transmission time on the basis of the data packet received and for determining a time deviation of the timer of the node on the basis of a time deviation between the determined node transmission time and a set node transmission time associated with the node ; means for transmitting a data packet to the node , the data packet comprising the determined time deviation of the timer of the node or a correction value derived therefrom; wherein the means for transmitting the data packet to the node is configured to transmit the data packet to the node , for synchronization of a node receiving time, at a base station transmission time or comprising a value derived therefrom.
A yaw system of a wind turbine having contingency autonomous control capabilities, the yaw system comprising: a plurality of yaw system components configured to change an angle of a nacelle of the wind turbine relative to an incoming wind direction , the plurality of yaw system components comprising: an auxiliary power supply comprising a brake power control device ; a braking unit coupled to the brake power control device ; at least two energy storage devices coupled to the braking unit ; a plurality of yaw drive mechanisms communicatively coupled to the auxiliary power supply via a communication link , each of the yaw drive mechanisms comprising a yaw power control device ; and a controller configured to implement a protective control strategy for the yaw system in response to one of the yaw system components experiencing a failure. an auxiliary power supply comprising a brake power control device ; a braking unit coupled to the brake power control device ; at least two energy storage devices coupled to the braking unit ; a plurality of yaw drive mechanisms communicatively coupled to the auxiliary power supply via a communication link , each of the yaw drive mechanisms comprising a yaw power control device ; and a controller configured to implement a protective control strategy for the yaw system in response to one of the yaw system components experiencing a failure.
A blade flexure assembly comprising: a plurality of removable flexure blades , each removable flexure blade having a first end and second end ; a plurality of mounting structures , each mounting structure having a curved surface to receive one of the first and second ends of one of the flexure blades ; and a plurality of clamping blocks , wherein each clamping block clamps one of the first and second ends of the flexure blade to one of the curved surfaces of the mounting structure , each clamping block having a curved surface with a shape different than the respective curved surface of the mounting structure such that the one of the first and second ends is clamped at two line contacts and a gap exists between the flexure blade and either the mounting structure or the clamping block . a plurality of removable flexure blades , each removable flexure blade having a first end and second end ; a plurality of mounting structures , each mounting structure having a curved surface to receive one of the first and second ends of one of the flexure blades ; and a plurality of clamping blocks , wherein each clamping block clamps one of the first and second ends of the flexure blade to one of the curved surfaces of the mounting structure , each clamping block having a curved surface with a shape different than the respective curved surface of the mounting structure such that the one of the first and second ends is clamped at two line contacts and a gap exists between the flexure blade and either the mounting structure or the clamping block .
A method carried out by a personal mobile device for establishing an encrypted audio session with a call-initiating device , the method comprising: receiving a session-request message requesting establishment of the encrypted-audio session with the call-initiating device ; in response to receiving the session-request message, presenting one or more call-response inquiries via a user interface , the one or more call-response inquiries comprising an accessory-status inquiry ; receiving an accessory-unready indication via the user interface , the accessory-unready indication being associated with the presented accessory-status inquiry ; in response to receiving the accessory-unready indication, sending a request-acknowledgment message to the call-initiating device , the request-acknowledgment message being associated with the session-request message; subsequent to sending the request-acknowledgment message but before establishing the encrypted-audio session with the call-initiating device , making an accessory-ready determination; and in response to making the accessory-ready determination, establishing the encrypted-audio session with the call-initiating device . receiving a session-request message requesting establishment of the encrypted-audio session with the call-initiating device ; in response to receiving the session-request message, presenting one or more call-response inquiries via a user interface , the one or more call-response inquiries comprising an accessory-status inquiry ; receiving an accessory-unready indication via the user interface , the accessory-unready indication being associated with the presented accessory-status inquiry ; in response to receiving the accessory-unready indication, sending a request-acknowledgment message to the call-initiating device , the request-acknowledgment message being associated with the session-request message; subsequent to sending the request-acknowledgment message but before establishing the encrypted-audio session with the call-initiating device , making an accessory-ready determination; and in response to making the accessory-ready determination, establishing the encrypted-audio session with the call-initiating device .
Ophthalmological implant having an active ingredient release system designed to release at least one pharmacologically active ingredient in the implanted state of the ophthalmological implant , where the active ingredient release system comprises at least one hydrogel as matrix, where the hydrogel forms a layer on an optical component of the implant , is covalently bonded to the optical component and is laden with the at least one active ingredient , characterized in that the at least one active ingredient is in the form of polymer nanoparticles distributed within the hydrogel .
A desanding device for removing at least particulates (P) from a multiple-phase fluid stream (F) containing at least gas (G), liquid (L) and entrained particulates (P), the desanding device comprising: a vessel forming a treatment chamber , the treatment chamber having a fluid inlet for receiving the fluid stream (F) adjacent an upper portion thereof and collecting particulates (P) at a lower portion thereof; wherein the treatment chamber comprises a top wall and a bottom wall , said bottom wall having a non-zero angle of inclination (α) with respect to a horizontal plane; and wherein the desanding device further comprises a recovery chamber comprising a conduit fluidly connected to the treatment chamber , the conduit having: a first upper port formed through the conduit and in fluid communication with the upper portion of the treatment chamber for receiving gas therefrom, a second lower port formed through the conduit and in fluid communication with the lower portion of treatment chamber for receiving liquid (L) therefrom, wherein the second lower port is at an elevation below the first upper port , and a fluid outlet , at an elevation intermediate the first upper port and the second lower port and at an elevation lower than the fluid inlet , for discharging a particulate-free gas (G) and a particulate-free liquid (L). a vessel forming a treatment chamber , the treatment chamber having a fluid inlet for receiving the fluid stream (F) adjacent an upper portion thereof and collecting particulates (P) at a lower portion thereof; wherein the treatment chamber comprises a top wall and a bottom wall , said bottom wall having a non-zero angle of inclination (α) with respect to a horizontal plane; and wherein the desanding device further comprises a recovery chamber comprising a conduit fluidly connected to the treatment chamber , the conduit having: a first upper port formed through the conduit and in fluid communication with the upper portion of the treatment chamber for receiving gas therefrom, a second lower port formed through the conduit and in fluid communication with the lower portion of treatment chamber for receiving liquid (L) therefrom, wherein the second lower port is at an elevation below the first upper port , and a fluid outlet , at an elevation intermediate the first upper port and the second lower port and at an elevation lower than the fluid inlet , for discharging a particulate-free gas (G) and a particulate-free liquid (L). a first upper port formed through the conduit and in fluid communication with the upper portion of the treatment chamber for receiving gas therefrom, a second lower port formed through the conduit and in fluid communication with the lower portion of treatment chamber for receiving liquid (L) therefrom, wherein the second lower port is at an elevation below the first upper port , and a fluid outlet , at an elevation intermediate the first upper port and the second lower port and at an elevation lower than the fluid inlet , for discharging a particulate-free gas (G) and a particulate-free liquid (L).
An organic EL panel comprising: an element formation substrate on which an organic EL element is formed; an encapsulation substrate ; and an encapsulation layer provided between the element formation substrate and the encapsulation substrate without a gap, the encapsulation layer includes an inner hygroscopic agent covering the organic EL element, an outer periphery hygroscopic agent provided along an outer peripheral edge of the inner hygroscopic agent , and a peripheral adhesive provided along an outer peripheral edge of the outer periphery hygroscopic agent , and the outer periphery hygroscopic agent contains an ultraviolet-curable or thermosetting gel resin and a desiccant added to the gel resin at a weight ratio of 10% or more and 80% or less; characterized in that : the inner hygroscopic agent contains the gel resin and the desiccant added to the gel resin at a weight ratio of 0.3% or more and less than 10%. an element formation substrate on which an organic EL element is formed; an encapsulation substrate ; and an encapsulation layer provided between the element formation substrate and the encapsulation substrate without a gap, the encapsulation layer includes an inner hygroscopic agent covering the organic EL element, an outer periphery hygroscopic agent provided along an outer peripheral edge of the inner hygroscopic agent , and a peripheral adhesive provided along an outer peripheral edge of the outer periphery hygroscopic agent , and the outer periphery hygroscopic agent contains an ultraviolet-curable or thermosetting gel resin and a desiccant added to the gel resin at a weight ratio of 10% or more and 80% or less; characterized in that : the inner hygroscopic agent contains the gel resin and the desiccant added to the gel resin at a weight ratio of 0.3% or more and less than 10%.
A wellbore ranging system for electromagnetic ranging between first and second wellbores , the system including a tool for deployment in the second wellbore , which tool has an elongated axis and a magnetic gradiometer , disposed along the elongated axis, configured to detect a magnetic gradient induced by a current flowing in an elongated conductive member in the first wellbore, in which system: the tool comprises an electric current source , carried by a conveyance mechanism , for providing power to the magnetic gradiometer, an emitter electrode (E) and two return electrodes (R 1 , R 2 ), which return electrodes are configured to alleviate the effect of null currents in the magnetic gradiometer, and which magnetic gradiometer is attached adjacent the end of the conveyance mechanism; and the emitter electrode and return electrodes are disposed along the elongated axis, for injecting alternating current in a formation between the first and the second wellbores to induce the current along the elongated conductive member and at least two insulators (G), wherein the three electrodes are electrically isolated from one another along the tool by the at least two insulators. the tool comprises an electric current source , carried by a conveyance mechanism , for providing power to the magnetic gradiometer, an emitter electrode (E) and two return electrodes (R 1 , R 2 ), which return electrodes are configured to alleviate the effect of null currents in the magnetic gradiometer, and which magnetic gradiometer is attached adjacent the end of the conveyance mechanism; and the emitter electrode and return electrodes are disposed along the elongated axis, for injecting alternating current in a formation between the first and the second wellbores to induce the current along the elongated conductive member and at least two insulators (G), wherein the three electrodes are electrically isolated from one another along the tool by the at least two insulators.
A filling device for filling material from a flexible bulk container, wherein the filling device has a hollow body having upper and lower opening surfaces, wherein the upper end of the hollow body protrudes inside the flexible bulk container, for material to enter from the flexible bulk container through the upper opening surface of the hollow body, wherein a closure is present at the lower end of the hollow body , which closure has an upper plate and a lower plate lying flat against one another, wherein the upper plate adjoins the lower opening surface of the hollow body and has itself an opening in extension of the lower opening surface of the hollow body , and wherein the lower plate is attached to the upper plate by a pin and the lower plate can be pivoted around the axis of said pin between a first position, in which it completely closes the opening of the upper plate , and a second position, in which the opening of the upper plate is at least partially exposed, wherein a handle is mounted on the upper plate and a handle is mounted on the lower plate , each handle extending about horizontally away from the respective plate , wherein the lower surface of each handle does not protrude downward beyond the standing surface of the filling device, characterised in that the lower plate has a structure , which forms at least part of the standing surface of the filling device, wherein the pin does not protrude downward from the standing surface, wherein the lower plate and the handle thereof are a monolithic, injection-moulded part.