mhurhangee/ep-ind-claims huggingface dataset:
A medical device comprising: a base material including an immobilized fibrinolytic enzyme covalently bound to the base material and dextran sulfate, the dextran sulfate having a molecular weight that is 8 kilo dalton (kDa) to stabilize the fibrinolytic enzyme when in contact with blood of the patient, wherein the fibrinolytic enzyme includes a urokinase-type plasminogen activator (uPA). a base material including an immobilized fibrinolytic enzyme covalently bound to the base material and dextran sulfate, the dextran sulfate having a molecular weight that is 8 kilo dalton (kDa) to stabilize the fibrinolytic enzyme when in contact with blood of the patient, wherein the fibrinolytic enzyme includes a urokinase-type plasminogen activator (uPA).
Method for generating an original total stream intended for being distributed to at least one broadcasting site, comprising a modulator and a transmitter sending a radiofrequency signal on a first frequency, characterized in that it implements the following steps: - obtaining at least one transport stream comprising at least one transport packet, - obtaining, from at least one modulation parameter for said broadcasting site, at least one starting instant of a modulation frame intended for being sent by said broadcasting site, - inserting at least one modulation information packet in said at least one transport stream, at a position determined from said at least one starting instant, - generating said original total stream, comprising at least one physical layer pipe encapsulating said at least one transport stream carrying said at least one modulation information packet. - obtaining at least one transport stream comprising at least one transport packet, - obtaining, from at least one modulation parameter for said broadcasting site, at least one starting instant of a modulation frame intended for being sent by said broadcasting site, - inserting at least one modulation information packet in said at least one transport stream, at a position determined from said at least one starting instant, - generating said original total stream, comprising at least one physical layer pipe encapsulating said at least one transport stream carrying said at least one modulation information packet.
A laminate comprising: a 10 to 500 nm thick biodegradable material layer containing an aliphatic polyester and a water-soluble material layer disposed on at least one side of the biodegradable material layer, wherein the water-soluble material layer is constituted by a 1 to 20 μm thick first film containing a water-soluble polymer (a), a 10 μm to 10 mm thick fabric structure containing a water-soluble polymer (b), and a 1 to 20 μm thick second film containing a water-soluble polymer (c), which are layered in this order from the biodegradable material layer side, the thicknesses being determined as described in the description, and wherein the water-soluble polymer (c) is pullulan. a 10 to 500 nm thick biodegradable material layer containing an aliphatic polyester and a water-soluble material layer disposed on at least one side of the biodegradable material layer, wherein the water-soluble material layer is constituted by a 1 to 20 μm thick first film containing a water-soluble polymer (a), a 10 μm to 10 mm thick fabric structure containing a water-soluble polymer (b), and a 1 to 20 μm thick second film containing a water-soluble polymer (c), which are layered in this order from the biodegradable material layer side, the thicknesses being determined as described in the description, and wherein the water-soluble polymer (c) is pullulan.
Method for operating a navigation system in a vehicle, comprising the following method steps: a) calculating a route from a starting point to a destination point, wherein the route is composed of a succession of route segments and nodes between the route segments which are selected by means of a route calculation method from a database in which a geographical region is described by route segments and nodes, b) calculating at least one lane instruction which contains instructions for the user to follow, starting from the current position, the calculated route by means of a lane change maneuver, c) calculating and displaying a schematic lane view at a display device, wherein the schematic lane view graphically represents in a schematized fashion route segments (02a, 02b, 02c, 02d) and the associated lanes as well as the lane instruction, characterized in that during the display of a schematic lane view the current position and the current travel direction of the vehicle are continuously determined, wherein the schematic lane view displayed at the display device is continuously updated with a predetermined update frequency as a function of the current position of the vehicle, wherein the schematic lane view (07a, 07b, 07c) comprises multiple lane change maneuvers, wherein only a section with at least one lane change maneuver is displayed at the display device, and wherein the relative position of the displayed section with respect to the schematic lane view (07a, 07b, 07c) is continuously updated as a function of the current position of the vehicle, wherein the orientation of the displayed section is continuously updated as a function of the current position and the current travel direction of the vehicle. a) calculating a route from a starting point to a destination point, wherein the route is composed of a succession of route segments and nodes between the route segments which are selected by means of a route calculation method from a database in which a geographical region is described by route segments and nodes, b) calculating at least one lane instruction which contains instructions for the user to follow, starting from the current position, the calculated route by means of a lane change maneuver, c) calculating and displaying a schematic lane view at a display device, wherein the schematic lane view graphically represents in a schematized fashion route segments (02a, 02b, 02c, 02d) and the associated lanes as well as the lane instruction,
Iron oxide nanoparticles in which γ-Fe 2 O 3 is doped with an alkali metal or alkali earth metal from the group consisting of Na, K, Mg, and Ca, wherein: an Fe vacancy site of γ-Fe 2 O 3 is doped with the alkali metal or alkali earth metal; the iron oxide nanoparticles are represented by Mg x -γFe 2 O 3, wherein x satisfies 0.05 ≤ x ≤ 0.15, or by Na 0.20 -γFe 2 O 3, or by K 0.18 -γFe 2 O 3, or by Ca 0.18 -γFe 2 O 3. an Fe vacancy site of γ-Fe 2 O 3 is doped with the alkali metal or alkali earth metal; the iron oxide nanoparticles are represented by Mg x -γFe 2 O 3, wherein x satisfies 0.05 ≤ x ≤ 0.15, or by Na 0.20 -γFe 2 O 3, or by K 0.18 -γFe 2 O 3, or by Ca 0.18 -γFe 2 O 3.
A method for the preparation of an injectable depot composition comprising the steps of: a) mixing a biocompatible polymer which is a copolymer-based on lactic acid plus glycolic acid having a monomer ratio of lactic to glycolic acid in the range from 48:52 to 100:0 and an inherent viscosity in the range of 0.25-0.48 dl/g measured at 25°C at a concentration of 0.1% in chloroform, with a drug having a water solubility lower than 2 mg/ml which is selected from the group consisting of fentanyl and risperidone, and then b) mixing the mixture obtained in step a) with a water-miscible solvent having a dipole moment of about 3.7-4.5 D and a dielectric constant of between 30 and 50, wherein the viscosity of the polymer solution comprising the polymer and the solvent measured at 25°C is adjusted to the range of between 0.50 and 3.0 Pa.s. a) mixing a biocompatible polymer which is a copolymer-based on lactic acid plus glycolic acid having a monomer ratio of lactic to glycolic acid in the range from 48:52 to 100:0 and an inherent viscosity in the range of 0.25-0.48 dl/g measured at 25°C at a concentration of 0.1% in chloroform, with a drug having a water solubility lower than 2 mg/ml which is selected from the group consisting of fentanyl and risperidone, and then b) mixing the mixture obtained in step a) with a water-miscible solvent having a dipole moment of about 3.7-4.5 D and a dielectric constant of between 30 and 50,
A method performed by a wireless communication device, the method comprising: receiving one or more segments of a segmented Radio Resource Control, RRC, message; determining that an Radio Link Failure, RLF, has occurred before a last segment of the segmented RRC message has been received; and upon determining that the error has occurred before the last segment of the segmented RRC message has been received, discarding the one or more received segments of the segmented Radio Resource Control, RRC, message. receiving one or more segments of a segmented Radio Resource Control, RRC, message; determining that an Radio Link Failure, RLF, has occurred before a last segment of the segmented RRC message has been received; and upon determining that the error has occurred before the last segment of the segmented RRC message has been received, discarding the one or more received segments of the segmented Radio Resource Control, RRC, message.
A zinc anode material for a secondary cell, comprising: a zinc-containing active material comprising at least a coating layer, wherein a coating composition of the coating layer contains at least one oxide of a metal selected from titanium (Ti), zirconium (Zr), magnesium (Mg), tin (Sn) and yttrium; characterized in that a surface localization ratio of the coating composition represented by the following Equation ranges from 1.6 to 16: Surface Localizatiion Ratio of Coating Composition = Surface Metal Atomic Ratio of Coating Composition Bulk Metal Atomic Ratio of Coating Composition wherein the surface metal atomic ratio of the coating composition is represented by the following Equation, and the bulk metal atomic ratio of the coating composition is represented by the following Equation: Surface Metal Atomic of Coating Composition = Metal Amount in Surface Coating Composition / mol ⁢ % Metal Amount in Surface Coating Compsition + Surface Zn Amount / mol ⁢ % Bulk Metal Atomic Ratio of Coating Composition = Metal Amount in Coating Composition / mol Metal Amount in Coating Composition + Zn Amount / mol the surface metal atomic ratio being determined by XPS using a 300 W monochromatic Al-Kα ray (1486.6 eV) as an X-ray source, at a photoelectron take-off angle of 45°, a measurement depth of approximately 5 nm and a measurement area φ of 800 μm; and wherein a thickness of the coating layer ranges from 5 to 500 nm. a zinc-containing active material comprising at least a coating layer, wherein a coating composition of the coating layer contains at least one oxide of a metal selected from titanium (Ti), zirconium (Zr), magnesium (Mg), tin (Sn) and yttrium; characterized in that a surface localization ratio of the coating composition represented by the following Equation ranges from 1.6 to 16: Surface Localizatiion Ratio of Coating Composition = Surface Metal Atomic Ratio of Coating Composition Bulk Metal Atomic Ratio of Coating Composition wherein the surface metal atomic ratio of the coating composition is represented by the following Equation, and the bulk metal atomic ratio of the coating composition is represented by the following Equation: Surface Metal Atomic of Coating Composition = Metal Amount in Surface Coating Composition / mol ⁢ % Metal Amount in Surface Coating Compsition + Surface Zn Amount / mol ⁢ % Bulk Metal Atomic Ratio of Coating Composition = Metal Amount in Coating Composition / mol Metal Amount in Coating Composition + Zn Amount / mol the surface metal atomic ratio being determined by XPS using a 300 W monochromatic Al-Kα ray (1486.6 eV) as an X-ray source, at a photoelectron take-off angle of 45°, a measurement depth of approximately 5 nm and a measurement area φ of 800 μm; and wherein a thickness of the coating layer ranges from 5 to 500 nm.
A safety fence installable in parking spaces, the safety fence having a fence structure comprising: two legs, each being insertable in a corresponding hole formed in the ground surface of the parking spaces along a vehicle width direction; a cylindrical section including wiring on the inside, and having a substantially upside-down U-shape, each end of the cylindrical section being connected to one of the two legs, characterised in that said cylindrical section has two openings (62, 72), one of said openings being formed on each side of the cylindrical section in the vehicle width direction, and configured to expose the wiring to the outside of the cylindrical section, wherein, in use, the two openings (62, 72) are located above the ground surface of the parking spaces, a box mounted to the cylindrical section, wherein the box communicates with one of the openings and is able to communicate with the other of the openings in another safety fence that can be arranged adjacently along the vehicle width direction, wherein the cylindrical section includes a first cylindrical member of substantially L-shape in which one of said openings is formed, a second cylindrical member of substantially L-shape in which the other of said openings is formed, and a cylindrical linkage member which links together the first cylindrical member and the second cylindrical member. two legs, each being insertable in a corresponding hole formed in the ground surface of the parking spaces along a vehicle width direction; a cylindrical section including wiring on the inside, and having a substantially upside-down U-shape, each end of the cylindrical section being connected to one of the two legs, characterised in that said cylindrical section has two openings (62, 72), one of said openings being formed on each side of the cylindrical section in the vehicle width direction, and configured to expose the wiring to the outside of the cylindrical section, wherein, in use, the two openings (62, 72) are located above the ground surface of the parking spaces, a box mounted to the cylindrical section, wherein the box communicates with one of the openings and is able to communicate with the other of the openings in another safety fence that can be arranged adjacently along the vehicle width direction, wherein the cylindrical section includes a first cylindrical member of substantially L-shape in which one of said openings is formed, a second cylindrical member of substantially L-shape in which the other of said openings is formed, and a cylindrical linkage member which links together the first cylindrical member and the second cylindrical member.
Manually actuatable control device for a lifting device, having at least one switching member arranged in a switch housing, the switching member comprises a plunger which projects from the switch housing and is guided in a sleeve and which is covered by a cover member, the sleeve projecting outwards through an opening in the switch housing, and the cover member is connected to the sleeve, the sleeve having an outward extending collar which is supported against an outside surface of the switch housing in the fitted state, and the sleeve being detachably held to the switch housing by means of a fastening ring which is supported against an inside surface of the switch housing in the fitted state, characterised in that the cover member is fastened to threaded ring, the sleeve has a first outside thread and a second outside thread, the first outside thread and the second outside thread are separated from one another by the collar, the fastening ring is in engagement with the first outside thread in the fitted state and the threaded ring is in engagement with the second outside thread in the fitted state, and the collar rests against an outside surface of the switch housing in the fitted state.
Gas cooking appliance comprising at least one gas burner, a regulating valve fluidically communicated with the burner for regulating gas flow between a minimum power and a nominal power, and an electromagnetic valve arranged between the regulating valve and the burner, the electromagnetic valve comprising a closure member, moveable between a closing position and an opening position, the closure member comprising a through hole, characterized in that the through hole of the closure member is calibrated to allow a gas flow corresponding to the nominal power of the burner to pass, the closure member being arranged by default in the closing position such that it allows, at most, the gas flow corresponding to the nominal power to pass, the gas cooking appliance further comprising a timer switch for increasing the power of the burner to a booster power with a booster gas flow rate (Qb) during a predetermined time interval, the timer switch being configured for controlling the electromagnetic valve by causing the closure member to transition to the opening position to allow the passage of a flow providing the booster power.
A method of using a hand-held spectrometer comprising: a. providing at least one indicator light configured to indicate to a user that a background scan function has completed, the at least one indicator light being arranged in proximity to a sensing area and around an ATR platform of the hand-held spectrometer; b. performing the background scan function of the hand-held spectrometer to collect background data, thereafter changing the state of the hand-held spectrometer and the at least one indicator light to indicate completion of the background scan or an error state; c. acquiring a sample spectrum from a sample placed on the sensing area; and d. processing the sample spectrum to determine a sample match state to a known material, wherein the at least one indicator light is configured to indicate the sample match state to the user; wherein the indications to the user provided by the at least one indicator light comprise changes in color of the at least one indicator light. a. providing at least one indicator light configured to indicate to a user that a background scan function has completed, the at least one indicator light being arranged in proximity to a sensing area and around an ATR platform of the hand-held spectrometer; b. performing the background scan function of the hand-held spectrometer to collect background data, thereafter changing the state of the hand-held spectrometer and the at least one indicator light to indicate completion of the background scan or an error state; c. acquiring a sample spectrum from a sample placed on the sensing area; and d. processing the sample spectrum to determine a sample match state to a known material, wherein the at least one indicator light is configured to indicate the sample match state to the user;
Mineral electrolyte membrane wherein: - the membrane is a porous membrane made of an electrically insulating metal or metalloid oxide comprising a first main surface and a second main surface separated by a thickness; - through pores or channels open at their both ends (5,6), having a width of 1000 nm or less, preferably of 100 nm or less, oriented in the direction of the thickness of the membrane and all substantially parallel over the entire thickness of the membrane, connect the first main surface and the second main surface; and - an electrolyte is confined in the pores of the membrane; a Gibbs-Thomson effect and optionally a one-dimensional transport of said electrolyte from the first main surface to the second main surface or from the second main surface to the first main surface being obtained in said electrolyte. - the membrane is a porous membrane made of an electrically insulating metal or metalloid oxide comprising a first main surface and a second main surface separated by a thickness; - through pores or channels open at their both ends (5,6), having a width of 1000 nm or less, preferably of 100 nm or less, oriented in the direction of the thickness of the membrane and all substantially parallel over the entire thickness of the membrane, connect the first main surface and the second main surface; and - an electrolyte is confined in the pores of the membrane; a Gibbs-Thomson effect and optionally a one-dimensional transport of said electrolyte from the first main surface to the second main surface or from the second main surface to the first main surface being obtained in said electrolyte.
A fiber sizing agent comprising: a vinyl ester resin having an alkoxy polyoxyalkylene structure and a urethane bond; and an aqueous medium, wherein the vinyl ester resin has a (meth)acryloyl equivalent in a range of 500 to 3,000 g/equivalent. a vinyl ester resin having an alkoxy polyoxyalkylene structure and a urethane bond; and an aqueous medium, wherein the vinyl ester resin has a (meth)acryloyl equivalent in a range of 500 to 3,000 g/equivalent.
A panel coating system comprising: - a panel - a layer having a receiving surface and being attached to the panel; - a removably attachable layer; - wherein one of the receiving surface and the removably attachable layer comprise a plurality of hooks and the other of the receiving surface and removably attachable layer comprise gripable surface elements onto which the hooks can grip characterized in that the panel has a plurality of holes and wherein the layer comprises a plurality of holes, wherein the plurality of holes of the layer align with the plurality of holes of the panel. - a panel - a layer having a receiving surface and being attached to the panel; - a removably attachable layer; - wherein one of the receiving surface and the removably attachable layer comprise a plurality of hooks and the other of the receiving surface and removably attachable layer comprise gripable surface elements onto which the hooks can grip
Apparatus designed for wall mounting, in particular a heating appliance, comprising a visible surface, referred to as the facade, and a surface, referred to as the attachment surface comprising means for mounting the apparatus on a wall, characterized in that, between the facade and the attachment surface, it comprises a retractable device comprising a detector designed to perform detection within a field, referred to as the detection field, characterized in that the retractable device can be deployed in a configuration in which the facade does not enter the detection field of the detector.
A method for executing a machine learning, ML, model on a field device comprising executing basic operations of the machine learning, ML, model divided into operation groups of basic operations according to a schedule, wherein basic operations of an operation group are executed while model parameters of a subsequent operation group are loaded, wherein the model parameters of a subsequent operation group are loaded into a main memory of the field device in response to load requests issued by a machine learning, ML, program implementing the machine learning model executed by a processing unit of the field device.