mhurhangee/ep-ind-claims huggingface dataset:
An optical sensor device comprising a light source, a first fiber, wherein light from said light source is coupled into said first fiber, an integrated-optics beam splitter having an optoelectronics-side entry port, a first and a second optoelectronics-side exit port (PT2, PT3) and a sensing-side port, wherein light entering said optoelectronics-side entry port is coupled at least partially into said sensing-side port and light entering said sensing-side port is split at least partially into said first and second optoelectronics-side exit ports (PT2, PT3), and wherein said first fiber is positioned to send light into said optoelectronics-side entry port, a sensing element (10, 11, 13) whose birefringence changes as a function of a measurand, wherein light from said sensing-side port is coupled into said sensing element (10, 11, 13), is reflected and is coupled back into said sensing-side port, at least a second fiber and a third fiber, wherein light from said first and said second optoelectronics-side exit ports (PT2, PT3) is fed into said second and third fibers (SMF2, SMF3), respectively, light detectors (PD1, PD2) for measuring light exiting from said second and third fibers (SMF2, SMF3), wherein said beam splitter comprises a) a plurality of waveguide sections (W1 - W5) and splitting junctions (J1 - J3), and b) a first and a second facet (22, 23) on opposite sides of said integrated-optics beam splitter, wherein said optoelectronics-side entry port and said optoelectronics-side exit ports (PT2 - PT4) are arranged at said first facet and said sensing-side port is arranged at said second facet, wherein, in a direction Y parallel to said first facet, said sensing-side port is offset, by a non-zero minimum port-port-offset, in respect to said optoelectronics-side entry port and said first and second optoelectronics-side exit ports (PT2, PT3), characterized in that in said direction Y, said sensing-side port is offset, by a non-zero minimum junction-port-offset, in respect to any junction (J1 - J3) that the light from said optoelectronics-side entry port passes on its way to said sensing-side port. a) a plurality of waveguide sections (W1 - W5) and splitting junctions (J1 - J3), and b) a first and a second facet (22, 23) on opposite sides of said integrated-optics beam splitter, wherein said optoelectronics-side entry port and said optoelectronics-side exit ports (PT2 - PT4) are arranged at said first facet and said sensing-side port is arranged at said second facet,
A time delay circuit comprising: a first semiconductor substrate including a top planar surface and a bottom surface; a first delay line formed on the top planar surface of the first substrate and having a first end and a second end; a metal layer formed on the bottom surface of the first substrate and including an opening; a second semiconductor substrate including a top planar surface and being spaced apart from the first substrate so as to provide an air gap therebetween; a second delay line formed on the top planar surface of the second substrate and having a first end and a second end; and an inter-cavity interconnection electrically coupled to the second ends of the first and second delay lines and extending through the first substrate, the opening in the metal layer and the air gap between the first and second substrates. a first semiconductor substrate including a top planar surface and a bottom surface; a first delay line formed on the top planar surface of the first substrate and having a first end and a second end; a metal layer formed on the bottom surface of the first substrate and including an opening; a second semiconductor substrate including a top planar surface and being spaced apart from the first substrate so as to provide an air gap therebetween; a second delay line formed on the top planar surface of the second substrate and having a first end and a second end; and an inter-cavity interconnection electrically coupled to the second ends of the first and second delay lines and extending through the first substrate, the opening in the metal layer and the air gap between the first and second substrates.
A method for illuminating an environment for the purpose of localizing a user device when applying simultaneous location and mapping technique, SLAM, the user device comprising a light source and at least one camera, the method being performed in an illumination determiner and comprising: determining a need for adjusting illumination; determining a field of view of the at least one camera of the user device; obtaining environment data for elements within the field of view from previously stored environment data, the environment data containing elements which can be matched against images captured by the user device to thereby determine a location of the user device, each element in the environment data comprising a set of co-ordinates, 2D or 3D; selecting at least one key element of the elements, wherein the key elements are of greater importance for simultaneous location and mapping, SLAM, than non-key elements, and wherein the step of selecting at least one key element comprises ranking the elements according to importance for SLAM and selecting a number of the highest ranked elements; and adjusting illumination of at least a subset of the at least one selected key element by adapting the light source, thereby enabling improved localization of the user device. determining a need for adjusting illumination; determining a field of view of the at least one camera of the user device; obtaining environment data for elements within the field of view from previously stored environment data, the environment data containing elements which can be matched against images captured by the user device to thereby determine a location of the user device, each element in the environment data comprising a set of co-ordinates, 2D or 3D; selecting at least one key element of the elements, wherein the key elements are of greater importance for simultaneous location and mapping, SLAM, than non-key elements, and wherein the step of selecting at least one key element comprises ranking the elements according to importance for SLAM and selecting a number of the highest ranked elements; and adjusting illumination of at least a subset of the at least one selected key element by adapting the light source, thereby enabling improved localization of the user device.
A stretched-web structure for producing a false ceiling or a dropped ceiling box in a room, including two flexible webs (5, 6) arranged parallel to one another and fastened stretched between at least one wall, with one of the webs being made of fabric, characterized in that the other web is made of polyvinyl chloride and is positioned above the other web made of fabric.
A system for high throughput elasticity measurement of a target microfiber, the system comprising: a rope-coiling device configured and adapted to induce rope-coiling in the target microfiber, thereby creating a coiled microfiber; a measurement device configured and adapted to measure one or more physical properties of the coiled microfiber within the rope-coiling device, thereby creating a coiled microfiber measurement; and a calibration device configured and adapted to convert the coiled microfiber measurement to a microfiber elasticity measurement. a rope-coiling device configured and adapted to induce rope-coiling in the target microfiber, thereby creating a coiled microfiber; a measurement device configured and adapted to measure one or more physical properties of the coiled microfiber within the rope-coiling device, thereby creating a coiled microfiber measurement; and a calibration device configured and adapted to convert the coiled microfiber measurement to a microfiber elasticity measurement.
A superconducting rotary electromagnetic machine at least partially surrounded by a magnetic shielding arrangement, wherein: the superconducting rotary electromagnetic machine comprises a rotor and a stator, at least one of the rotor and the stator comprising a superconducting magnetic flux source in the form of a superconducting field winding; and the magnetic shielding arrangement comprises a superconductor magnetic shield, characterized in that the magnetic shielding arrangement further comprises a second magnetic shield and a third magnetic shield, wherein the second magnetic shield is an eddy current shield and at least partially surrounds the superconductor magnetic shield; and the third magnetic shield is constructed from a material having a high magnetic permeability having a relative permeability (μ/μ 0) higher than 800. the superconducting rotary electromagnetic machine comprises a rotor and a stator, at least one of the rotor and the stator comprising a superconducting magnetic flux source in the form of a superconducting field winding; and the magnetic shielding arrangement comprises a superconductor magnetic shield, characterized in that the magnetic shielding arrangement further comprises a second magnetic shield and a third magnetic shield, wherein the second magnetic shield is an eddy current shield and at least partially surrounds the superconductor magnetic shield; and the third magnetic shield is constructed from a material having a high magnetic permeability having a relative permeability (μ/μ 0) higher than 800.
A food processor driven by an electric motor, with an agitator vessel and an agitator in the agitator vessel, if necessary with a heater, further with a volatile or nonvolatile memory, in which files useful for application can be stored, wherein further a loudspeaker is provided in the food processor, and a file is usable for sound generation by the loudspeaker, for example for voice or music or tone output, characterized in that the food processor exhibits a recognition device for recognizing a human user, wherein the position of the user relative to the food processor can at the same time also be recognized in relation to a top view.
A method for producing an assembly including a polymer electrolyte membrane comprising a step of preliminary pressure application wherein a pressure is continuously applied to a recipient sheet including a polymer electrolyte membrane and an assembling sheet including an assembling layer, the recipient sheet and the assembling layer of the assembling sheet being in contact with each other, and a step of heated pressure application wherein the recipient sheet and the assembling sheet after the preliminary pressure application step are subjected to continuous pressure application with heating, wherein average temperature elevation rate of the recipient sheet and the assembling sheet in the preliminary pressure application step is up to 20°C/sec, the method further comprising a step of pressure application with cooling wherein the assembly assembled in the heated pressure application step is continuously subjected to pressure application with cooling, wherein the preliminary pressure application step, the heated pressure application step, and the cooled pressure application step are continuously conducted in one double belt pressure application mechanism. a step of preliminary pressure application wherein a pressure is continuously applied to a recipient sheet including a polymer electrolyte membrane and an assembling sheet including an assembling layer, the recipient sheet and the assembling layer of the assembling sheet being in contact with each other, and a step of heated pressure application wherein the recipient sheet and the assembling sheet after the preliminary pressure application step are subjected to continuous pressure application with heating, wherein average temperature elevation rate of the recipient sheet and the assembling sheet in the preliminary pressure application step is up to 20°C/sec, the method further comprising a step of pressure application with cooling wherein the assembly assembled in the heated pressure application step is continuously subjected to pressure application with cooling, wherein the preliminary pressure application step, the heated pressure application step, and the cooled pressure application step are continuously conducted in one double belt pressure application mechanism.
A sliding member comprising a base material having on a surface thereof a sliding layer (82, 88b) constituting at least a sliding surface (8a, 88c), the sliding layer (82, 88b) characterized by: a first layer formed on the base material, the first layer containing an amorphous hard carbon film containing Si; and a second layer formed on the first layer, the second layer containing a polymer containing an amide group and/or an imide group and said second layer further containing a solid lubricant. a first layer formed on the base material, the first layer containing an amorphous hard carbon film containing Si; and a second layer formed on the first layer, the second layer containing a polymer containing an amide group and/or an imide group and said second layer further containing a solid lubricant.
A method of operating a distributed unit, DU, node of a radio access network, wherein the DU node is coupled to a central unit, CU, node over an F1 interface, and wherein the DU node performs a setup procedure with the CU node over the F1 interface for an RRC connection with respect to a wireless device, UE, the method comprising: transmitting a setup request message to the CU node, wherein the setup request message includes an indication of a latest Radio Resource Control, RRC, version supported by the DU node; and receiving a setup response message from the CU node, characterised in that this message includes an indication of an RRC version supported by the CU node and by the UE, and establishing an RRC connection with the UE using the RRC version indicated in the setup response message. transmitting a setup request message to the CU node, wherein the setup request message includes an indication of a latest Radio Resource Control, RRC, version supported by the DU node; and receiving a setup response message from the CU node, characterised in that this message includes an indication of an RRC version supported by the CU node and by the UE, and establishing an RRC connection with the UE using the RRC version indicated in the setup response message.
Support for a camera on a motor vehicle, comprising at least a main body with a guide and a bracket element which is pivotable relative to the main body and is connected to the main body via at least one guide rail (5, 6), and which extends along an extent between a first end and a second end, wherein the camera may be arranged on the second end, wherein the first end is arranged on the guide wherein the bracket element is pivotably connected to the at least one guide rail (5, 6) between the first end and the second end; wherein, when the bracket element is pivoted, the first end is displaceable along the guide and the bracket element is displaceable along the at least one guide rail (5, 6); characterized in that the guide and the at least one guide rail (5, 6) are arranged stationarily relative to each other; and in that the bracket element is connected to the main body via at least one spring element.
A modular system for the locomotion of sliding panels for buildings facades comprising: i. At least a pre-ring (15, 21, 37) that characterizes the structure of the perimeter ring of the system; ii. At least a ring that characterizes the structure of the sliding profile of the panel; iii. At least a panel (9, 17, 28, 29) inserted in the structure of the sliding profile; iv. Roller tracks on which the sliding profiles of the panels are seated and move; vi. Vertical pull profiles on the sliding profiles; vii. Sealing and insulating profiles on the perimeter ring, sliding profiles and panels; and viii. Accessories assembled on the profiles which comprise closing systems, bearings and seals; the perimeter ring and the roller tracks being retracted in the soil, the access to said perimeter ring and roller tracks being insulated by means of "clip in and out" type covers (31, 33) comprising finishing caps or water drainage grilles to the surface of the perimeter ring of the system, the finishing caps ensuring insulation of technical cavities comprising at least one of a thermal insulating material, an acoustic insulating material, a thermal sleeve for producing cold and/or heat, a LED lighting and signage strips, safety sensors, switches or hidden safety closing systems. i. At least a pre-ring (15, 21, 37) that characterizes the structure of the perimeter ring of the system; ii. At least a ring that characterizes the structure of the sliding profile of the panel; iii. At least a panel (9, 17, 28, 29) inserted in the structure of the sliding profile; iv. Roller tracks on which the sliding profiles of the panels are seated and move; vi. Vertical pull profiles on the sliding profiles; vii. Sealing and insulating profiles on the perimeter ring, sliding profiles and panels; and viii. Accessories assembled on the profiles which comprise closing systems, bearings and seals;
An absorbent article comprising a liquid pervious topsheet, a liquid impervious backsheet, and an absorbent core comprising an absorbent material between a top core wrap sheet and a back core wrap sheet, said absorbent core being positioned in between said topsheet and said backsheet, said absorbent core having a first and second longitudinal edge and a first and second transverse edge, said absorbent core having a first portion and a second portion on either side of a transverse crotch line, wherein the first transverse edge is a front edge intended to be positioned at a front side of a person, and the second transverse edge is a rear edge intended to be positioned at a rear side of a person; wherein the first portion of the absorbent core is a front portion, and the second portion a rear portion; wherein the absorbent core is provided with a plurality of attachment zones where the top core wrap sheet is attached to the back core wrap sheet, characterized in that said plurality of attachment zones comprises at least - a first and a second elongate attachment zone (140, 150) extending next each other, at least in the first portion of the absorbent core in the direction of the first transverse edge and - a third and a fourth elongate attachment zone (160, 170) extending next to each other, at least in the second portion of the absorbent core, in the direction of the second transverse edge; wherein, measured in a transverse direction, a first maximum distance between the first and the second attachment zone is at least 5% bigger than a second maximum distance between the third and the fourth attachment zone. - a first and a second elongate attachment zone (140, 150) extending next each other, at least in the first portion of the absorbent core in the direction of the first transverse edge and - a third and a fourth elongate attachment zone (160, 170) extending next to each other, at least in the second portion of the absorbent core, in the direction of the second transverse edge;
A method of wireless communication at a transmitting device, comprising: receiving one or more quality of service, QoS, flows from a protocol layer; mapping the one or more QoS flows to one or more data radio bearers, DRBs, established between the transmitting device and a receiving device; and transmitting a plurality of media access control, MAC, protocol data units, PDUs, corresponding to the one or more DRBs, each MAC protocol data unit, PDU, comprising: a packet data convergence protocol, PDCP, PDU comprising a PDCP header and a partially ciphered PDCP payload, wherein the PDCP payload comprises a service data adaptation protocol, SDAP, PDU comprising an SDAP header and an SDAP payload corresponding to the one or more DRBs, wherein the SDAP header is not ciphered. receiving one or more quality of service, QoS, flows from a protocol layer; mapping the one or more QoS flows to one or more data radio bearers, DRBs, established between the transmitting device and a receiving device; and transmitting a plurality of media access control, MAC, protocol data units, PDUs, corresponding to the one or more DRBs, each MAC protocol data unit, PDU, comprising: a packet data convergence protocol, PDCP, PDU comprising a PDCP header and a partially ciphered PDCP payload, wherein the PDCP payload comprises a service data adaptation protocol, SDAP, PDU comprising an SDAP header and an SDAP payload corresponding to the one or more DRBs, wherein the SDAP header is not ciphered.
Method for providing a push-to-talk connection between at least two terminals (TE1, TE2, TE3) of subscribers inside a communication network, a) a first terminal signalling information for setting up a push-to-talk connection to a switching node, conference server, b) the first terminal setting up a useful connection to the switching node, conference server, c) the switching node (conference server) setting up a useful connection to at least one further terminal (TE2, TE3), characterized in that a terminal (TE1, TE2, TE3) initiates the termination of the useful connections, in which case - if the further terminal terminates the useful connection to the switching node, conference server, the subscribers at the other terminals (TE1, TE3) are informed of the termination of the useful connection, and - if the first terminal terminates the useful connection to the switching node, conference server, the entire push-to-talk connection is terminated. a) a first terminal signalling information for setting up a push-to-talk connection to a switching node, conference server, b) the first terminal setting up a useful connection to the switching node, conference server, c) the switching node (conference server) setting up a useful connection to at least one further terminal (TE2, TE3), - if the further terminal terminates the useful connection to the switching node, conference server, the subscribers at the other terminals (TE1, TE3) are informed of the termination of the useful connection, and - if the first terminal terminates the useful connection to the switching node, conference server, the entire push-to-talk connection is terminated.
A method of controlling communication in a wireless communication network, the method comprising: - a wireless communication device (100; 100') receiving a Radio Resource Control, RRC, message comprising resource allocation information from the wireless communication network, the resource allocation information indicating a set of resources allocated by the wireless communication network to be used by the wireless communication device (100; 100') for device-to-device communication and at least one condition for utilization of the set of resources; and - depending on the at least one condition, the wireless communication device (100; 100') controlling utilization of the set of resources for device-to-device communication between the wireless communication device (100; 100') and a further wireless communication device (100; 100'). - a wireless communication device (100; 100') receiving a Radio Resource Control, RRC, message comprising resource allocation information from the wireless communication network, the resource allocation information indicating a set of resources allocated by the wireless communication network to be used by the wireless communication device (100; 100') for device-to-device communication and at least one condition for utilization of the set of resources; and - depending on the at least one condition, the wireless communication device (100; 100') controlling utilization of the set of resources for device-to-device communication between the wireless communication device (100; 100') and a further wireless communication device (100; 100').