mhurhangee/ep-ind-claims huggingface dataset:
A touch-sensitive sensor comprising a layer of piezoelectric material interposed between, on the one hand, first and second electrically-conductive elements (20, 22) and, on the other hand, at least one third conductive element (14, 16) comprising a surface opposite at least one of the first and second conductive elements (20, 22) characterized: in that the first and second electrically-conductive elements (20, 22) each comprise a comb (34, 36), and wherein the combs (34, 36) of the first and second conductive elements (20, 22) are interdigited; in that the piezoelectric material layer is interposed between, on the one hand, the first and second electrically-conducive elements (20, 22) and, on the other hand, the third conductive element and a fourth conductive element (14, 16), in that the third and fourth electrically-conductive elements (14, 16) each comprise a comb (46, 48), the combs (46, 48) of the third and fourth conductive elements (14, 16) being interdigited, in that: ▪ teeth of the first conductive element are arranged opposite teeth of the fourth conductive element; and ▪ teeth of the second conductive element are arranged opposite teeth of the third conductive element. and in that the first conductive element is electrically connected to the third conductive element, and wherein the second conductive element is electrically connected to the fourth conductive element. in that the first and second electrically-conductive elements (20, 22) each comprise a comb (34, 36), and wherein the combs (34, 36) of the first and second conductive elements (20, 22) are interdigited; in that the piezoelectric material layer is interposed between, on the one hand, the first and second electrically-conducive elements (20, 22) and, on the other hand, the third conductive element and a fourth conductive element (14, 16), in that the third and fourth electrically-conductive elements (14, 16) each comprise a comb (46, 48), the combs (46, 48) of the third and fourth conductive elements (14, 16) being interdigited, in that: ▪ teeth of the first conductive element are arranged opposite teeth of the fourth conductive element; and ▪ teeth of the second conductive element are arranged opposite teeth of the third conductive element. ▪ teeth of the first conductive element are arranged opposite teeth of the fourth conductive element; and ▪ teeth of the second conductive element are arranged opposite teeth of the third conductive element.
A long-acting glucagon conjugate in which a glucagon derivative is covalently linked to an immunoglobulin Fc fragment via a non-peptide linker, wherein the non-peptide linker is polyethylene glycol; and wherein the glucagon derivative is selected from the group consisting of derivatives represented by the following Formulae 1 to 4: wherein "Peptide" represents native glucagon.
A computer implemented method for designing a tooth movement system for eliciting a selected movement of a patient's tooth, the method comprising: receiving a digital model of the patient's tooth; determining a desired force system for eliciting the selected tooth movement; designing a patient-customized attachment configured to engage an orthodontic aligner when worn by a patient and apply a repositioning force to a tooth corresponding to the selected force system, the attachment comprising one or more parameters having values selected based on the digital model, the selected force system, and one or more patient-specific characteristics, and designing patient-customized orthodontic aligners configured to engage said patient-customized attachment when worn by a patient, the aligners customized responsive to said attachment, said digital model, said selected force system and said one or more patient-specific characteristic, thereby providing improved application of the selected force system to the patient's tooth. receiving a digital model of the patient's tooth; determining a desired force system for eliciting the selected tooth movement; designing a patient-customized attachment configured to engage an orthodontic aligner when worn by a patient and apply a repositioning force to a tooth corresponding to the selected force system, the attachment comprising one or more parameters having values selected based on the digital model, the selected force system, and one or more patient-specific characteristics, and designing patient-customized orthodontic aligners configured to engage said patient-customized attachment when worn by a patient, the aligners customized responsive to said attachment, said digital model, said selected force system and said one or more patient-specific characteristic, thereby providing improved application of the selected force system to the patient's tooth.
A method of manufacturing a solar cell, the method comprising: forming an emitter layer on a first surface of a semiconductor substrate; forming an insulation layer on the emitter layer; applying a chemical compound for etching the insulation layer and comprising a dopant having a conductive type of the emitter layer on the insulation layer according to a pattern; forming a high concentration emitter portion by: removing a portion of the insulation layer corresponding to a positioning of the chemical compound; and diffusing the dopant towards the emitter layer; removing the chemical compound; and forming a first electrode electrically connected to the high concentration emitter portion. forming an emitter layer on a first surface of a semiconductor substrate; forming an insulation layer on the emitter layer; applying a chemical compound for etching the insulation layer and comprising a dopant having a conductive type of the emitter layer on the insulation layer according to a pattern; forming a high concentration emitter portion by: removing a portion of the insulation layer corresponding to a positioning of the chemical compound; and diffusing the dopant towards the emitter layer; removing a portion of the insulation layer corresponding to a positioning of the chemical compound; and diffusing the dopant towards the emitter layer; removing the chemical compound; and forming a first electrode electrically connected to the high concentration emitter portion.
A device comprising: a first full bridge rectifier (110, 130) configured to receive power from an alternating current, i.e., AC, power source, the first full bridge rectifier having direct current, i.e., DC output nodes (116, 118, 136, 138); a second full bridge rectifier (110, 130) configured to receive power from the AC power source, the second full bridge rectifier having DC output nodes (116, 118, 136, 138), wherein the second full bridge rectifier is coupled to receive AC power in series with the first full bridge rectifier; a first set of light emitting diodes (D5, 140, 142, 144, 146) coupled to the DC output nodes of the first full bridge rectifier; a second set of light emitting diodes (D5, 140, 142, 144, 146) coupled to the DC output nodes of the second full bridge rectifier; characterized in that the device further comprises a first AC load and a second AC load (122, 124), wherein a first node of the first AC load is connected to an AC node (114, 132) of the first rectifier and a second node of the first AC load is connected to an AC node (114, 132) of the second rectifier; and a switch (121, 123) configured to selectively connect the second AC load (122, 124) in parallel with the first AC load and disconnect power to the second AC load (122, 124) while the first AC load continues receiving power. a first full bridge rectifier (110, 130) configured to receive power from an alternating current, i.e., AC, power source, the first full bridge rectifier having direct current, i.e., DC output nodes (116, 118, 136, 138); a second full bridge rectifier (110, 130) configured to receive power from the AC power source, the second full bridge rectifier having DC output nodes (116, 118, 136, 138), wherein the second full bridge rectifier is coupled to receive AC power in series with the first full bridge rectifier; a first set of light emitting diodes (D5, 140, 142, 144, 146) coupled to the DC output nodes of the first full bridge rectifier; a second set of light emitting diodes (D5, 140, 142, 144, 146) coupled to the DC output nodes of the second full bridge rectifier; characterized in that the device further comprises a first AC load and a second AC load (122, 124), wherein a first node of the first AC load is connected to an AC node (114, 132) of the first rectifier and a second node of the first AC load is connected to an AC node (114, 132) of the second rectifier; and a switch (121, 123) configured to selectively connect the second AC load (122, 124) in parallel with the first AC load and disconnect power to the second AC load (122, 124) while the first AC load continues receiving power.
A liquid-tight layer assembly for surfaces of constructions, comprising: a first conductive layer, and a second non-conductive layer, wherein the first layer in the assembled state is disposed between a surface to be tightened and the second layer, characterised in that a surface resistance of the first layer according to DIN EN 61340-4-1 VDE 0300-4-1:2016-04 is less than or equal to 10 5 Ω or less than or equal to 5 × 10 4 Ω, a volume resistance of the second layer according to DIN EN 61340-4-1 VDE 0300-4-1:2016-04 is greater than or equal to 10 8 Ω or greater than or equal to 10 9 Ω, and a water impact class of which according to DIN 18534-1 - 2017-07 is W1-I to W3-I, and both the first layer and the second layer are formed on the basis of cement. a first conductive layer, and a second non-conductive layer, wherein the first layer in the assembled state is disposed between a surface to be tightened and the second layer, characterised in that a surface resistance of the first layer according to DIN EN 61340-4-1 VDE 0300-4-1:2016-04 is less than or equal to 10 5 Ω or less than or equal to 5 × 10 4 Ω, a volume resistance of the second layer according to DIN EN 61340-4-1 VDE 0300-4-1:2016-04 is greater than or equal to 10 8 Ω or greater than or equal to 10 9 Ω, and a water impact class of which according to DIN 18534-1 - 2017-07 is W1-I to W3-I, and both the first layer and the second layer are formed on the basis of cement.
Optical data transfer system, comprising an apparatus, a first optical service port, a second optical service port, a physical data line for transferring data by means of electromagnetic energy between the apparatus in the first optical service port and the second optical service port, wherein the physical data line between the apparatus on the one hand and the first optical service port and second optical service port on the other hand is interrupted by a gap, wherein the physical data line has an optical signal splitter, and wherein a piece of physical data line is situated between the gap and the optical signal splitter; wherein the optical data transfer system is configured to transmit an electromagnetic signal between the apparatus and the first optical service port over the physical data line, wherein the transmission may be carried out in a first direction from the apparatus to the first optical service port and wherein the transmission may be carried out in a second direction from the first optical service port to the apparatus; wherein the optical data transfer system is further configured to detect an electromagnetic signal transmitted over the gap to the second optical service port if the transmission is carried out in the first direction; and configured to detect an electromagnetic signal reflected at the gap at the second optical service port if the transmission is carried out in the second direction.
A method of video streaming to a video player device, wherein the method comprises: receiving, from said video player device, a request for streaming of a video to said video player device; in response to said request for streaming of a video, transmitting to said video player device a video chunk list comprising resource locators of video chunks for playing the video, said video chunk list comprising a resource locator of a first resource locator type and a resource locator of a second resource locator type, said first resource locator type referring to a single video chunk and said second resource locator type comprising: a first resource locator referring to a first video chunk, a second resource locator referring to a second video chunk and an expected play out delay of said second video chunk; receiving, from said video player device, a request for streaming a video chunk from said video chunk list; if a resource locator comprised in said request for streaming a video chunk is of the first resource locator type, transmitting said single video chunk to said video player device; if said resource locator comprised in said request for streaming a video chunk is of the second resource locator type, transmitting to said video player device said first video chunk, and if said second video chunk is not available, transmitting a request for computing said second video chunk, said request for computing the second video chunk comprising said expected play out delay. receiving, from said video player device, a request for streaming of a video to said video player device; in response to said request for streaming of a video, transmitting to said video player device a video chunk list comprising resource locators of video chunks for playing the video, said video chunk list comprising a resource locator of a first resource locator type and a resource locator of a second resource locator type, said first resource locator type referring to a single video chunk and said second resource locator type comprising: a first resource locator referring to a first video chunk, a second resource locator referring to a second video chunk and an expected play out delay of said second video chunk; receiving, from said video player device, a request for streaming a video chunk from said video chunk list;
Fuel cell, characterized in that it includes: - first and second electrochemical cells; - a bipolar plate arranged between the first and second electrochemical cells, including a conductor support (101, 102) delimiting a first flow channel facing the first electrochemical cell and extending between an air inlet and a water outlet, and including a first conductive coating attached to the conductor support at the air inlet of the first flow channel and including a second conductive coating attached to the conductor support at a median portion of the first flow channel, the second conductive coating exhibiting a surface electrical resistance greater than that of the first conductive coating. - first and second electrochemical cells; - a bipolar plate arranged between the first and second electrochemical cells, including a conductor support (101, 102) delimiting a first flow channel facing the first electrochemical cell and extending between an air inlet and a water outlet, and including a first conductive coating attached to the conductor support at the air inlet of the first flow channel and including a second conductive coating attached to the conductor support at a median portion of the first flow channel, the second conductive coating exhibiting a surface electrical resistance greater than that of the first conductive coating.
Method for co-browsing a webpage displayed in a window of a first web browser executed in a first terminal, with at least one second web browser executed in a second terminal, characterized in that it comprises: - continuously obtaining with the second browser a video stream rendered in the first terminal, said stream being continuously transmitted by the first terminal to the second terminal and comprising display data of the webpage and reference data characteristic of a display zone of said webpage in the window of the first browser, which zone is called the active zone of the first browser, said reference data being graphically inserted into the active zone by the first browser; - rendering the video stream in a rendering zone included in a window of the second browser; - following detection of at least one action triggered by a user of the second terminal, which action is applied to at least one graphical element displayed inside the rendering zone, obtaining (S26, S27) information on the location of the action on the basis of an evaluation of the position of said graphical element with respect to a coordinate system associated with the active zone of the first browser, said location information being determined depending on first position data relative to the reference data with respect to the rendering zone; - transmitting to the first browser a message including a type of action associated with the detected action and said information on the location of the action; and - applying said action to said webpage in the window of the first browser depending on the content of said message. - continuously obtaining with the second browser a video stream rendered in the first terminal, said stream being continuously transmitted by the first terminal to the second terminal and comprising display data of the webpage and reference data characteristic of a display zone of said webpage in the window of the first browser, which zone is called the active zone of the first browser, said reference data being graphically inserted into the active zone by the first browser; - rendering the video stream in a rendering zone included in a window of the second browser; - following detection of at least one action triggered by a user of the second terminal, which action is applied to at least one graphical element displayed inside the rendering zone, obtaining (S26, S27) information on the location of the action on the basis of an evaluation of the position of said graphical element with respect to a coordinate system associated with the active zone of the first browser, said location information being determined depending on first position data relative to the reference data with respect to the rendering zone; - transmitting to the first browser a message including a type of action associated with the detected action and said information on the location of the action; and - applying said action to said webpage in the window of the first browser depending on the content of said message.
A tire wear estimation system (50, 100) comprising: at least one tire supporting a vehicle; at least one sensor affixed to the tire to generate a first predictor (52, 102); at least one of a lookup table and a database storing data for a second predictor (52, 102), wherein at least one of the first and second predictors includes at least one vehicle effect; and a model configured for receiving the predictors (52, 102) and generating an estimated wear rate for the at least one tire, characterized in that the system (50, 100) further comprises an additional predictor (52, 102) that includes at least one of route severity and driver severity, or an additional predictor (52, 102) that includes at least one of a compound identification for the at least one tire and a tread structure identification for the at least one tire. at least one tire supporting a vehicle; at least one sensor affixed to the tire to generate a first predictor (52, 102); at least one of a lookup table and a database storing data for a second predictor (52, 102), wherein at least one of the first and second predictors includes at least one vehicle effect; and a model configured for receiving the predictors (52, 102) and generating an estimated wear rate for the at least one tire, characterized in that the system (50, 100) further comprises an additional predictor (52, 102) that includes at least one of route severity and driver severity, or an additional predictor (52, 102) that includes at least one of a compound identification for the at least one tire and a tread structure identification for the at least one tire.
Addition-crosslinking silicone compositions comprising from 30 to 95% by weight of linear compounds which have moieties having aliphatic carbon-carbon multiple bonds, from 0.1 to 20% by weight of linear organopolysiloxanes having Si-bonded hydrogen atoms, or instead of and from 30 to 95% by weight of linear organopolysiloxanes which have SiC-bonded moieties having aliphatic carbon-carbon multiple bonds and Si-bonded hydrogen atoms, at least one hydrosilylation catalyst, and from 5 to 70% by weight of filler made of porous silver-doped glass particles, where from 5 to 50% by weight of the silver have been doped in ionic form. from 30 to 95% by weight of linear compounds which have moieties having aliphatic carbon-carbon multiple bonds, from 0.1 to 20% by weight of linear organopolysiloxanes having Si-bonded hydrogen atoms, or instead of and from 30 to 95% by weight of linear organopolysiloxanes which have SiC-bonded moieties having aliphatic carbon-carbon multiple bonds and Si-bonded hydrogen atoms, at least one hydrosilylation catalyst, and from 5 to 70% by weight of filler made of porous silver-doped glass particles, where from 5 to 50% by weight of the silver have been doped in ionic form.
Micromechanical component having a layer construction comprising at least one membrane on the top side and at least one counter-element in a first layer, wherein a hollow space is formed between the membrane and the counter-element, and the counter-element has at least one through opening from the hollow space towards a back volume, which is formed by a closed-off further hollow space below the counter-element, characterized in that said further hollow space is linked to the top side of the layer construction via at least one pressure equalization opening in the first layer in a region alongside the membrane.
Tugboat having a longitudinal direction and comprising a single elongated hull, a deck and a carrousel-type towing system having a circular base connected to the deck, the base having a centre point, the towing system further comprising a cart that is moveable over the base over 360°, wherein the cart comprises a powered winch during use provided with a tug cable for towing vessels, wherein a propulsion system is connected to the hull, for providing a propulsive force in a body of water, characterized in that the propulsion system comprises two propulsion units each arranged below the hull's draft and capable of providing thrust over 360° in a plane below the hull's draft (Hdraft) and perpendicular to the tugboat's vertical plane of symmetry, said vertical plane of symmetry extending in the longitudinal direction of the tugboat, wherein the propulsion units are positioned in the vertical plane of symmetry and are aligned in the longitudinal direction, wherein one of the propulsion units is positioned in front of the centre point and the other one is positioned behind the centre point when seen along the longitudinal direction, and the distance between the propulsion units is at least 10% of a length of the tugboat in the longitudinal direction, wherein the tugboat is configured in such a way that during towing the vertical distance (H cp) between the centre point and the waterline divided by the vertical distance (H p) between the centre of thrust of the propulsion units and the waterline is 0,3 - 1,5.