mhurhangee/patent-ind-claim-en huggingface dataset:
Method for communicating between at least a first terminal and a second terminal , - a first communication session (S1) having previously been established between the first terminal and a communication network , on the initiative of the first terminal, after the first terminal's sending (E201) of an invitation message to the second terminal to participate in said first communication session, - during the first communication session, first drawing data having been generated (E206) by at least the first terminal, said first drawing data being intended for transmission to the second terminal, the method being characterized in that it comprises, when the second terminal is not available to participate in the first communication session, - a step of recording (E209) said first drawing data in a communication device , - after the end of said first communication session, a step of detecting (E213) an available state of the second terminal for participation in a communication session, triggering the sending (E215) of an invitation message by the communication device to the second terminal to participate in a second communication session, - a step in which the communication device receives (E216) an acceptance message for participation in said second communication session, sent from the second terminal, allowing the second communication session (S2) to be established between the second terminal and the communication device, - during the second communication session, a step of sending (E219) said first recorded drawing data to the second terminal. - a first communication session (S1) having previously been established between the first terminal and a communication network , on the initiative of the first terminal, after the first terminal's sending (E201) of an invitation message to the second terminal to participate in said first communication session, - during the first communication session, first drawing data having been generated (E206) by at least the first terminal, said first drawing data being intended for transmission to the second terminal, - a step of recording (E209) said first drawing data in a communication device , - after the end of said first communication session, a step of detecting (E213) an available state of the second terminal for participation in a communication session, triggering the sending (E215) of an invitation message by the communication device to the second terminal to participate in a second communication session, - a step in which the communication device receives (E216) an acceptance message for participation in said second communication session, sent from the second terminal, allowing the second communication session (S2) to be established between the second terminal and the communication device, - during the second communication session, a step of sending (E219) said first recorded drawing data to the second terminal.
An image processing system, comprising: a video transmitting device ; and one or more video receiving devices (12-1,...,12-n), wherein the video transmitting device comprises a video transmitting unit that transmits one or more videos to the one or more video receiving devices, and under a condition that there is a change in load on the video transmitting device or one or more of the video receiving devices, or in a situation of communication between the video transmitting device and the one or more video receiving devices, the video transmitting unit changes the number of videos that are transmitted as videos to be placed in one screen depending on the change, wherein if the change in load is a decrease the number of videos that are transmitted is increased, and if the change in load is an increase the number of videos that are transmitted is decreased, wherein each video receiving device comprises a screen generating unit that generates a screen that contains frame images of videos which are received as videos to be placed in one screen, wherein the video transmitting unit transmits, to each video receiving device, as videos to be placed in one screen, videos in a number determined in accordance with a given rule, and wherein the screen generating unit generates a screen that contains as many frame images of videos as the determined number. a video transmitting device ; and one or more video receiving devices (12-1,...,12-n), wherein the video transmitting device comprises a video transmitting unit that transmits one or more videos to the one or more video receiving devices, and under a condition that there is a change in load on the video transmitting device or one or more of the video receiving devices, or in a situation of communication between the video transmitting device and the one or more video receiving devices, the video transmitting unit changes the number of videos that are transmitted as videos to be placed in one screen depending on the change, wherein if the change in load is a decrease the number of videos that are transmitted is increased, and if the change in load is an increase the number of videos that are transmitted is decreased, wherein each video receiving device comprises a screen generating unit that generates a screen that contains frame images of videos which are received as videos to be placed in one screen, wherein the video transmitting unit transmits, to each video receiving device, as videos to be placed in one screen, videos in a number determined in accordance with a given rule, and wherein the screen generating unit generates a screen that contains as many frame images of videos as the determined number.
Radiological imaging method comprising: > 2 radiation sources with imaging directions orthogonal to each other, one frontal radiation source and one lateral radiation source, sliding vertically so as to perform vertical scanning of a standing patient along a vertical scanning direction (Z), wherein said radiological method comprises at least one operating mode in which: > a frontal scout view is made by performing a preliminary vertical scanning of a standing patient along said vertical scanning direction (Z) by said frontal radiation source, > said frontal scout view is processed to identify a specific bone(s) localization within said frontal scout view, > a driving current intensity of at least said frontal radiation source is modulated along said vertical scanning direction (Z), depending on patient thickness and on said identified specific bone(s) localization along said vertical scanning direction (Z), > with no modulation of driving voltage intensity of said frontal radiation source along said vertical scanning direction (Z), > said driving current intensity modulation of said frontal radiation source is performed automatically, so as to improve a compromise between: o lowering the global radiation dose received by a patient during said vertical scanning, o while keeping at a sufficient level the local image contrasts of said identified specific bone(s) localization at different imaging positions along said vertical scanning direction (Z), for the frontal image. > 2 radiation sources with imaging directions orthogonal to each other, one frontal radiation source and one lateral radiation source, sliding vertically so as to perform vertical scanning of a standing patient along a vertical scanning direction (Z), > a frontal scout view is made by performing a preliminary vertical scanning of a standing patient along said vertical scanning direction (Z) by said frontal radiation source, > said frontal scout view is processed to identify a specific bone(s) localization within said frontal scout view, > a driving current intensity of at least said frontal radiation source is modulated along said vertical scanning direction (Z), depending on patient thickness and on said identified specific bone(s) localization along said vertical scanning direction (Z), > with no modulation of driving voltage intensity of said frontal radiation source along said vertical scanning direction (Z), > said driving current intensity modulation of said frontal radiation source is performed automatically, so as to improve a compromise between: o lowering the global radiation dose received by a patient during said vertical scanning, o while keeping at a sufficient level the local image contrasts of said identified specific bone(s) localization at different imaging positions along said vertical scanning direction (Z), for the frontal image. o lowering the global radiation dose received by a patient during said vertical scanning, o while keeping at a sufficient level the local image contrasts of said identified specific bone(s) localization at different imaging positions along said vertical scanning direction (Z), for the frontal image.
A doctor blade for contact with an anilox roller, the doctor blade comprising a flat, elongate base element having a thickness of less than 0.3 mm, which, along a longitudinal region of the doctor blade adapted for contact with said anilox roller, is provided with a coating, wherein the coating comprises a metal matrix and at least 65 % by weight of one or more ceramic(s) and wherein the coating comprises 0 to 65 % by weight of chromium carbide.
A seabed survey apparatus comprising: a body having a frame and a plurality of legs extending therefrom, distal ends of said legs for engaging the seabed; at least one first detector mounted on said body for gathering first data to be interpreted to give topographical information relating to a surface or a volume below said surface of the seabed adjacent said body; and at least one second detector mounted on said body for gathering second data to be interpreted to give information relating to the metallic content of the seabed adjacent said body, wherein said body is characterized in that it further comprises at least one detector mover for moving the detectors on said frame and said detector mover comprises a beam mounted and movable on said frame , said detectors mounted on said beam . a body having a frame and a plurality of legs extending therefrom, distal ends of said legs for engaging the seabed; at least one first detector mounted on said body for gathering first data to be interpreted to give topographical information relating to a surface or a volume below said surface of the seabed adjacent said body; and at least one second detector mounted on said body for gathering second data to be interpreted to give information relating to the metallic content of the seabed adjacent said body, wherein said body is characterized in that it further comprises at least one detector mover for moving the detectors on said frame and said detector mover comprises a beam mounted and movable on said frame , said detectors mounted on said beam .
Bistable solenoid valve device for a fluid system , wherein the solenoid valve device has a bistable solenoid valve having: a permanent magnet yoke with a first pole base and a second pole base for the formation of a first ferromagnetic circuit and a second ferromagnetic circuit, an armature consisting of a magnetically conductive material, which can be displaced between a first armature position (I) for contact against the first core to form an air gap with the second core , and a second armature position (II) for contact against the second core to form an air gap with the first core , a first armature coil to be fed a current for a displacement into the first armature position (I), and a second armature coil to be fed a current for a displacement into the second armature position (II), a final stage for feeding current to in each case one of the armature coils for a displacement of the armature , characterized in that the solenoid valve device further comprises a detection device for evaluating or measuring a first inductance (La, Lb) of the first armature coil and for evaluating or measuring a second inductance (La, Lb) of the second armature coil without displacement of the armature and for comparing the inductances (La, Lb) of the first armature coil and of the second armature coil and for outputting a state signal (S1) that indicates the armature position (I, II). a permanent magnet yoke with a first pole base and a second pole base for the formation of a first ferromagnetic circuit and a second ferromagnetic circuit, an armature consisting of a magnetically conductive material, which can be displaced between a first armature position (I) for contact against the first core to form an air gap with the second core , and a second armature position (II) for contact against the second core to form an air gap with the first core , a first armature coil to be fed a current for a displacement into the first armature position (I), and a second armature coil to be fed a current for a displacement into the second armature position (II), a final stage for feeding current to in each case one of the armature coils for a displacement of the armature , characterized in that the solenoid valve device further comprises a detection device for evaluating or measuring a first inductance (La, Lb) of the first armature coil and for evaluating or measuring a second inductance (La, Lb) of the second armature coil without displacement of the armature and for comparing the inductances (La, Lb) of the first armature coil and of the second armature coil and for outputting a state signal (S1) that indicates the armature position (I, II).
An aerostructure assembly (50; 50a), comprising: an aerostructure (60; 60a) comprising an outer shell having a first end and a closed end spaced from the first end along a first dimension , a first female receiver disposed within an interior of the outer shell and spaced from the outer shell , and a plurality of first supports extending between the outer shell and an outer perimeter of the first female receiver , wherein the aerostructure (60; 60a) is an integral structure and comprises resin; a coupling assembly (100; 100a) comprising a coupling having a first coupling end and a second coupling end that are spaced along the first dimension and a first beam (120; 120a), the first beam (120; 120a) extending from the second coupling end in the first dimension , into the outer shell of the aerostructure (60; 60a), and into the first female receiver of the aerostructure (60; 60a); and at least one first fastener that extends through the outer shell and at least into the first beam (120; 120a). an aerostructure (60; 60a) comprising an outer shell having a first end and a closed end spaced from the first end along a first dimension , a first female receiver disposed within an interior of the outer shell and spaced from the outer shell , and a plurality of first supports extending between the outer shell and an outer perimeter of the first female receiver , wherein the aerostructure (60; 60a) is an integral structure and comprises resin; a coupling assembly (100; 100a) comprising a coupling having a first coupling end and a second coupling end that are spaced along the first dimension and a first beam (120; 120a), the first beam (120; 120a) extending from the second coupling end in the first dimension , into the outer shell of the aerostructure (60; 60a), and into the first female receiver of the aerostructure (60; 60a); and at least one first fastener that extends through the outer shell and at least into the first beam (120; 120a).
An ultrasound crystallization device comprising: - a container , wherein the container comprises - an inlet for receiving a flow of process fluid containing substance to be crystallized, - a tubular crystallization reactor arranged to conduct the process fluid between the inlet and an outlet of the crystallization device, - an ultrasound source for radiating ultrasound to the tubular crystallization reactor, and - a temperature-control structure for controlling temperature of the process fluid so that the process fluid is in heat transfer relation with temperature-control fluid, wherein the tubular crystallization reactor is shaped to conduct the process fluid to flow around the ultrasound source so that a flow path of the process fluid is circulated around the ultrasound source, characterized in that the temperature-control structure comprises a flow-guide structure for guiding at least a part of the temperature-control fluid to flow around the ultrasound source so that a flow path of the at least part of the temperature-control fluid is circulated around the ultrasound source. - a container , wherein the container comprises - an inlet for receiving a flow of process fluid containing substance to be crystallized, - a tubular crystallization reactor arranged to conduct the process fluid between the inlet and an outlet of the crystallization device, - an ultrasound source for radiating ultrasound to the tubular crystallization reactor, and - a temperature-control structure for controlling temperature of the process fluid so that the process fluid is in heat transfer relation with temperature-control fluid,
Method for controlling a local area network gateway provided with a function of driving a bidirectional radio link for reception and transmission, the gateway being intended to be connected to at least one terminal of the local area network via said link , which method is characterized in that it comprises the following steps on the gateway: - saving of a unique identifier of at least one terminal of the local area network that is authorized to wake up the gateway and of a wake-up identifier; - the gateway entering an active standby state in which: - the radio link is inhibited for transmission; - the radio link is limited in range or limited to a specific channel or periodically inhibited for reception; - listening on the radio link for reception (Ell); - upon detection of a wake-up identifier on the radio link (E13), the gateway entering a passive standby state in which the radio link is activated for transmission; - reception of a communication request (E20, R); - checking of the validity of the terminal transmitting the request, by comparing its unique identifier with the unique identifier saved for at least one terminal of the local area network that is authorized to wake up the gateway; - placing the gateway: - in a standby state in which the radio link is active for transmission and for reception, if said terminal is valid; - in an active standby state if not. - saving of a unique identifier of at least one terminal of the local area network that is authorized to wake up the gateway and of a wake-up identifier; - the gateway entering an active standby state in which: - the radio link is inhibited for transmission; - the radio link is limited in range or limited to a specific channel or periodically inhibited for reception; - the radio link is inhibited for transmission; - the radio link is limited in range or limited to a specific channel or periodically inhibited for reception; - listening on the radio link for reception (Ell); - upon detection of a wake-up identifier on the radio link (E13), the gateway entering a passive standby state in which the radio link is activated for transmission; - reception of a communication request (E20, R); - checking of the validity of the terminal transmitting the request, by comparing its unique identifier with the unique identifier saved for at least one terminal of the local area network that is authorized to wake up the gateway; - placing the gateway: - in a standby state in which the radio link is active for transmission and for reception, if said terminal is valid; - in an active standby state if not. - in a standby state in which the radio link is active for transmission and for reception, if said terminal is valid; - in an active standby state if not.
A system for integrated guidance for positioning a biopsy device in a body, the system comprising a tracking device for coarse guidance, an analyze device for fine guidance, comprising an optical detector, and a biopsy device being an elongate element with a tip portion, wherein the biopsy device is adapted to be traced by the tracking device, the tracking being adapted to provide position information indicative for the position of the biopsy device relative to body structures, wherein the optical detector is integrated in the tip portion of the biopsy device and comprises an optical fiber , wherein the analyze device further comprises a console for spectroscopy, wherein the console and the fiber are connected to each other, wherein the analyze device is adapted to provide information discriminating tissue of the body at the tip portion of the biopsy device which comprise spectra which are recorded using the analyze device, and wherein the tracking device is adapted to link the position information to a pre-recorded image of body structures, wherein the system is configured to register the information discriminating tissue of the body in the pre-recorded image, making use of the position information.
Filter element , in particular air filter element, which forms a replaceable filter insert for a filtering device for filtering gaseous fluids, in particular for filtering air, for being inserted into a multipart housing , wherein at least one housing component features at least one housing dome , wherein the filter element is rectangular, wherein a circumferential sealing element for separating a raw side from a clean side is made of PUR foam, wherein the sealing element is directly cast onto the filter element , characterized in that the filter element features at least one recess and is clampable using the at least one housing dome , wherein the recess extends between the raw side and the clean side of the filter element , wherein a damping device , which is designed as penetration-free damping plug and consists of a vibration-damping material, is received in the at least one recess , wherein the damping device consists of PUR foam and is cast integrally into the recess and produced in the same processing step as the circumferential sealing element and wherein, in mounted state, the damping device can be disposed between the front face of the at least one housing dome and the opposing housing component .