mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a film comprising nanocellulose having an Oxygen Transmission Rate value in the range of 0.1 to 300 cc/m 2 /24h at 38°C and 85 % relative humidity, and having a basis weight in the range of 0.1 to 45 g/m 2 wherein the method comprises the steps of: - providing a suspension comprising nanocellulose; - forming at least one layer of a web or a film from said suspension; - drying said formed web or film to a dry content of at least 65 weight-%; characterized in that said method further comprises the steps of: - treating at least one side of said dewatered and dried web or film with ultra violet irradiation wherein the temperature of the web or film is less than 70°C during the UV treatment; and in that at least one cooling step is provided immediately or directly after the UV treatment step wherein said cooling step includes either actively cooling of the film, or that it is kept at a storage temperature of 40°C or less, and wherein - the UV treated film or web comprises at least 50 wt-% nanocellulose based on total dry content of the film and that the nanocellulose is microfibrillated cellulose. - providing a suspension comprising nanocellulose; - forming at least one layer of a web or a film from said suspension; - drying said formed web or film to a dry content of at least 65 weight-%; characterized in that said method further comprises the steps of: - treating at least one side of said dewatered and dried web or film with ultra violet irradiation wherein the temperature of the web or film is less than 70°C during the UV treatment; and in that at least one cooling step is provided immediately or directly after the UV treatment step wherein said cooling step includes either actively cooling of the film, or that it is kept at a storage temperature of 40°C or less, and wherein - the UV treated film or web comprises at least 50 wt-% nanocellulose based on total dry content of the film and that the nanocellulose is microfibrillated cellulose.
Cookware intended to be used with an induction heating appliance, said cookware comprising a bowl fitted with a base consisting of a primary ferromagnetic material (5, 5a) with a pre-established Curie temperature, the base comprising a secondary ferromagnetic material (6, 6a) with a higher Curie temperature, said base having been adapted so that when the heating appliance is in operation it generates a heating power which enables the temperature of the base of the cookware to reach a maximum temperature close to the Curie temperature of the primary material (5, 5a), characterised in that the primary ferromagnetic material (5, 5a) has an external surface S1, the secondary ferromagnetic material (6, 6a) has an external surface S2 and the ratio between S1 and S2 being between 1.1 and 2.7, preferably between 1.1 and 2.
A method for wireless communications, comprising: transmitting, by a first wireless node, a training frame to a second wireless node, wherein the training frame comprises a sequence number; transmitting, to the second wireless node, a first request to send at least one characteristic of a channel; receiving, at the first wireless node, in response to the transmitted first request, a packet from the second wireless node, wherein the packet comprises the sequence number; and transmitting, by the first wireless node, to the second wireless node, a second request to send the at least one characteristic of the channel, wherein the second request comprises an acknowledgement, ACK, indicating that the packet was received. transmitting, by a first wireless node, a training frame to a second wireless node, wherein the training frame comprises a sequence number; transmitting, to the second wireless node, a first request to send at least one characteristic of a channel; receiving, at the first wireless node, in response to the transmitted first request, a packet from the second wireless node, wherein the packet comprises the sequence number; and transmitting, by the first wireless node, to the second wireless node, a second request to send the at least one characteristic of the channel, wherein the second request comprises an acknowledgement, ACK, indicating that the packet was received.
Method for tension regulation in a strip-shaped material between two clamping points, wherein the two clamping points are two preferably adjacent roll stands of a rolling train and wherein at least one of the roll stands comprises a rotary drive for rotational driving of its rolls or wherein one of the two clamping points is a roller pair and the other one of the two clamping points is a coiling device downstream in rolling direction, wherein the roller pair comprises the rotary drive for rotational driving of at least one of its rollers land/or the coiling device comprises the rotary drive for rotational driving of the coiler, with the following steps: determining the actual tension between the two clamping points; determining a regulating deviation e(t) as a difference between the actual tension and a predetermined target tension; input of the regulating deviation e(t) into a regulating device for producing a regulator output signal R(t); converting the regulator output signal R(t) into a setting signal S(t); and regulating the actual tension to the target tension by varying the rotational speed of the rotary drive as setting element in accordance with the setting signal S(t); characterised in that the regulator output signal R(t) is varied within the scope of its conversion into the setting signal S(t) at least for a time in dependence on a variable g(t) representing the speed of the strip-shaped material. determining the actual tension between the two clamping points; determining a regulating deviation e(t) as a difference between the actual tension and a predetermined target tension; input of the regulating deviation e(t) into a regulating device for producing a regulator output signal R(t); converting the regulator output signal R(t) into a setting signal S(t); and regulating the actual tension to the target tension by varying the rotational speed of the rotary drive as setting element in accordance with the setting signal S(t); characterised in that the regulator output signal R(t) is varied within the scope of its conversion into the setting signal S(t) at least for a time in dependence on a variable g(t) representing the speed of the strip-shaped material.
A method of distributed vibration sensing using Rayleigh backscatter within a multimode optical fibre, comprising: coupling an interrogator to the multimode optical fibre using a double clad optical fibre having a single mode waveguide and a multimode waveguide; receiving at the interrogator, through the single mode waveguide of the double clad optical fibre, light backscattered within the multimode optical fibre; and detecting vibrations as a function of position along the multimode optical fibre from the received backscattered light. coupling an interrogator to the multimode optical fibre using a double clad optical fibre having a single mode waveguide and a multimode waveguide; receiving at the interrogator, through the single mode waveguide of the double clad optical fibre, light backscattered within the multimode optical fibre; and detecting vibrations as a function of position along the multimode optical fibre from the received backscattered light.
Method for determining the topography of the cornea of the eye, based on the detection and assignment of a pattern, produced by a keratometric measurement arrangement, with respect to a reference pattern and on a subsequent mathematical ascertainment of the topography, wherein in a reflective measurement a plurality of reflection images are recorded successively, all the elements of the pattern produced are detected in all the reflection images and the coordinates of said elements are determined, characterized in that a reference image is selected from all the reflection images, in that a global displacement of the pattern of all the reflection images with respect to the reference image is ascertained and compensated, in that a data structure containing the coordinates of all the detected elements and a counter with the counter reading 1 is produced and stored for the reference image, in that an attempt is made to assign the detected elements of at least some of the reflection images to the coordinates of the reference image that correspond to the detected elements, in that, for elements that could be assigned, the counter of the data structure of the reference image is increased by 1 in said data structure, in that elements from the reflection images that were not assigned are included as new coordinates in the data structure of the reference image with a counter reading 1, in that the coordinates assigned to an element in the data structure of the reference image are appropriately averaged, and in that the data structure of the reference image produced from all the reflection images is used for the assignment to the reference pattern.
An iron oxide/nanokaolin composite hemostatic agent, wherein an active ingredient of the composite hemostatic agent is made by compounding nanokaolin and nano-scale iron oxide,the iron oxide being supported on a surface of the nanokaolin, the mass percentage of the iron oxide being 15%-45%,wherein the iron oxide is α-ferric oxide, γ-ferric oxide and/or ferroferric oxide.
A method for transmitting "correction" information or data D a in a bi-frequency satellite navigation system comprising at least one satellite SBAS designed to broadcast said correction data D a to one or more users (U i), one or more first stations NLES delivering satellite enhancement services SBAS L 1 and an auxiliary signal and one or more second stations NLES L 5 delivering services SBAS L 5, characterised in that: • a first station NLES L 1 transmits a message SBAS L 1 modulating a carrier UL 1 and an auxiliary message E 5 modulating a carrier UL 5 to a satellite; • a second station NLES L 5 transmits a message SBAS L 5 modulating a carrier UL 5 to a satellite; • said satellite transmits the messages SBAS L 1 and SBAS L 5 to one or more users U i; • said satellite transmits the message SBAS E 5 and the message SBAS L 5 to said second station NLES L 5, said second station NLES L 5 phase and frequency synchronises the transmission of the message L 5 and of its carrier UL 5 on the message SBAS E 5 and its carrier DL 5, so that the message L 1 and the message L 5 are transmitted at the same time or with a known constant bias of the users (U i) on said satellite SBAS. • a first station NLES L 1 transmits a message SBAS L 1 modulating a carrier UL 1 and an auxiliary message E 5 modulating a carrier UL 5 to a satellite; • a second station NLES L 5 transmits a message SBAS L 5 modulating a carrier UL 5 to a satellite; • said satellite transmits the messages SBAS L 1 and SBAS L 5 to one or more users U i; • said satellite transmits the message SBAS E 5 and the message SBAS L 5 to said second station NLES L 5, said second station NLES L 5 phase and frequency synchronises the transmission of the message L 5 and of its carrier UL 5 on the message SBAS E 5 and its carrier DL 5, so that the message L 1 and the message L 5 are transmitted at the same time or with a known constant bias of the users (U i) on said satellite SBAS.
A method, comprising: at an electronic device with a touch-sensitive display; while displaying a first user interface on the display, detecting a first touch input on the display; in response to detecting the first touch input on the display, entering a flashlight mode, wherein entering the flashlight mode includes replacing the first user interface with a first flashlight user interface, the first flashlight user interface having a first total lumen output and a first luminance that is substantially uniform over the display, wherein the first flashlight user interface includes an indication of a current time; determining whether brightness change criteria are met; in accordance with a determination that the brightness change criteria are met, displaying a second flashlight user interface, the second flashlight user interface having a second total lumen output greater than the first total lumen output and a second luminance that is substantially uniform over the display, wherein the second flashlight user interface does not include the indication of the current time; while displaying the second flashlight user interface, detecting a second touch input on the display; and in response to detecting the second touch input, replacing the second flashlight user interface with the first flashlight user interface. while displaying a first user interface on the display, detecting a first touch input on the display; in response to detecting the first touch input on the display, entering a flashlight mode, wherein entering the flashlight mode includes replacing the first user interface with a first flashlight user interface, the first flashlight user interface having a first total lumen output and a first luminance that is substantially uniform over the display, wherein the first flashlight user interface includes an indication of a current time; determining whether brightness change criteria are met; in accordance with a determination that the brightness change criteria are met, displaying a second flashlight user interface, the second flashlight user interface having a second total lumen output greater than the first total lumen output and a second luminance that is substantially uniform over the display, wherein the second flashlight user interface does not include the indication of the current time; while displaying the second flashlight user interface, detecting a second touch input on the display; and in response to detecting the second touch input, replacing the second flashlight user interface with the first flashlight user interface.
A stacking element (1, 40) for receiving solar modules for transport with an edge protection (4, 49) against which a solar module can abut, and a clamping device, which comprises a gap (8, 35, 41) for receiving the solar module, said gap running perpendicular to the stacking direction, characterised in that the clamping device comprises a clamping pin (5, 6, 42, 43), which forms a side of the gap.
A method of determining a physical parameter associated with a region of interest, comprising: launching a plurality of optical pulses at a plurality of wavelengths into an optical sensor array having a plurality of interferometric sensors disposed at a plurality of locations within a region of interest; receiving a plurality of wavelength-dependent signals produced by the plurality of interferometric sensors in response to the optical pulses; and characterised by based on a transit time between each launching of an optical pulse and detecting a wavelength-dependent signal produced by the interferometric sensors in response to the launched optical pulse, determining a contribution of each interferometric sensor to each of the received wavelength-dependent signals; determining optical path length imbalances associated with the interferometric sensors based on the determined contributions; and determining a physical parameter at the plurality of locations within the region of interest based on the determined optical path length imbalances. launching a plurality of optical pulses at a plurality of wavelengths into an optical sensor array having a plurality of interferometric sensors disposed at a plurality of locations within a region of interest; receiving a plurality of wavelength-dependent signals produced by the plurality of interferometric sensors in response to the optical pulses; and characterised by based on a transit time between each launching of an optical pulse and detecting a wavelength-dependent signal produced by the interferometric sensors in response to the launched optical pulse, determining a contribution of each interferometric sensor to each of the received wavelength-dependent signals; determining optical path length imbalances associated with the interferometric sensors based on the determined contributions; and determining a physical parameter at the plurality of locations within the region of interest based on the determined optical path length imbalances.
A method comprising: participating, with one of a plurality of multi-homed provider edge, PE, routers (10A, 10B, 10C) that provide an active-standby configuration for an Ethernet segment coupling the PE routers to a customer network, in a designated forwarder, DF, election of the PE routers for the Ethernet segment; and upon election as a primary DF for the Ethernet segment, sending, with the one of the PE routers (10A, 10B, 10C), a first control plane routing protocol message to a remote PE router operating with the PE routers to form an Ethernet Virtual Private Network, EVPN, wherein the first control plane routing protocol message includes an indicator that the PE router is the primary DF in the Ethernet segment, wherein the first control plane routing protocol message comprises an Ethernet A-D route communicated by the BGP protocol and includes an EVPN Multi-Homed, MH, Provider Edge, PE, Status extended community for the Ethernet A-D route to specifically identify the primary DF status for the sending PE. participating, with one of a plurality of multi-homed provider edge, PE, routers (10A, 10B, 10C) that provide an active-standby configuration for an Ethernet segment coupling the PE routers to a customer network, in a designated forwarder, DF, election of the PE routers for the Ethernet segment; and upon election as a primary DF for the Ethernet segment, sending, with the one of the PE routers (10A, 10B, 10C), a first control plane routing protocol message to a remote PE router operating with the PE routers to form an Ethernet Virtual Private Network, EVPN, wherein the first control plane routing protocol message includes an indicator that the PE router is the primary DF in the Ethernet segment, wherein the first control plane routing protocol message comprises an Ethernet A-D route communicated by the BGP protocol and includes an EVPN Multi-Homed, MH, Provider Edge, PE, Status extended community for the Ethernet A-D route to specifically identify the primary DF status for the sending PE.
A method for diagnosing, monitoring and/or prognosing distant metastasis of a cancer in a patient, which method comprises quantitatively and/or qualitatively determining the level of expression of TPTE in a biological sample isolated from said patient and quantitatively and/or qualitatively determining the level of expression of CXCR4 in a biological sample isolated from said patient, wherein a level of expression of TPTE and a level of expression of CXCR4 which is increased is indicative for distant metastasis of a cancer or for a potential for the occurrence of distant metastasis of a cancer.
System for peripheral nerve stimulation, in particular for detecting and/or monitoring of neuronal and/or muscle activity, comprising at least one neurostimulation device, wherein the neurostimulation device comprises at least a first recording means and a second recording means, wherein the first recording means and the second recording means are configured to be arranged at a recording means distance from one another and respectively configured to detect a stimulus being propagated along a nervous structure, in particular along an efferent nerve and/or an afferent nerve, such that a speed of the stimulus being propagated along the nervous structure can be determined, wherein each of the first and second recording means (130; 140) comprise at least two recording elements (132; 134; 142; 144), wherein the recording elements (132; 134) of the first recording means are arranged in a first pattern, wherein the recording elements (142; 144) of the second recording means are arranged in a second pattern different from the first pattern. wherein the neurostimulation device comprises at least a first recording means and a second recording means, wherein the first recording means and the second recording means are configured to be arranged at a recording means distance from one another and respectively configured to detect a stimulus being propagated along a nervous structure, in particular along an efferent nerve and/or an afferent nerve, such that a speed of the stimulus being propagated along the nervous structure can be determined, wherein each of the first and second recording means (130; 140) comprise at least two recording elements (132; 134; 142; 144), wherein the recording elements (132; 134) of the first recording means are arranged in a first pattern, wherein the recording elements (142; 144) of the second recording means are arranged in a second pattern different from the first pattern.
Roof assembly having a roof substructure, at least one solar module, a roof cladding recessed around the solar module, and at least one covering frame, characterised in that a roof lining is arranged between the solar module (5, 5') and the roof substructure, and that a covering frame lower part associated with the covering frame is arranged in the region of the solar module (5, 5') on the eaves side, which reaches below a portion of the solar module (5, 5') on the ridge side and overlaps a region of the upper side of the roof cladding on the eaves side, wherein an end region of the roof lining on the eaves side overlaps the upper side of the covering frame lower part.
A delivery device for a fluid, the fluid being liquid insulin, comprising: a) a tank (110; 210) for the fluid; b) a fluid delivery device (100; 200) which delivers the fluid from the tank (110; 210), the fluid delivery device (110, 210) being a pump or a piston that is connected to a piston rod; c) a valve body comprising an input hole and an output hole; d) an infusion set (120; 220) for guiding the fluid from the tank (110; 210) to a distal end of the delivery device; e) an injection needle or a cannula, the injection needle or cannula forming the distal end of the delivery device; f) wherein the delivery device further comprises a shutter assembly (2, 3) which is or can be mounted to the valve body and prevents the fluid from flowing inside the infusion set (120; 220) when the fluid exhibits a pressure which is lower than a predefined pressure, g) the fluid flows in the area of interaction between the valve body and the shutter assembly (2, 3) at the periphery of the valve body, characterized in that h) the shutter assembly (2, 3; 70) and the valve body form a spring valve, i) the spring valve comprises the valve body, a strip and a leaf spring, and j) the leaf spring acts on the strip and provides the force to be overcome in order to open the flow connection between the outlet of the collector chamber and the inlet of the drain chamber. a) a tank (110; 210) for the fluid; b) a fluid delivery device (100; 200) which delivers the fluid from the tank (110; 210), the fluid delivery device (110, 210) being a pump or a piston that is connected to a piston rod; c) a valve body comprising an input hole and an output hole; d) an infusion set (120; 220) for guiding the fluid from the tank (110; 210) to a distal end of the delivery device; e) an injection needle or a cannula, the injection needle or cannula forming the distal end of the delivery device; f) wherein the delivery device further comprises a shutter assembly (2, 3) which is or can be mounted to the valve body and prevents the fluid from flowing inside the infusion set (120; 220) when the fluid exhibits a pressure which is lower than a predefined pressure, g) the fluid flows in the area of interaction between the valve body and the shutter assembly (2, 3) at the periphery of the valve body, characterized in that h) the shutter assembly (2, 3; 70) and the valve body form a spring valve, i) the spring valve comprises the valve body, a strip and a leaf spring, and j) the leaf spring acts on the strip and provides the force to be overcome in order to open the flow connection between the outlet of the collector chamber and the inlet of the drain chamber.