mhurhangee/ep-ind-claims huggingface dataset:
A surface structured article comprising a polymer matrix and a dispersed phase, the article having first and second opposed major surfaces, wherein the article comprises a multilayer fluoropolymer film comprising in order: a first layer comprising a first polymer forming the polymer matrix, the first polymer comprising at least 35 mole percent tetrafluoroethylene comonomer, at least 15 mole percent vinylidene fluoride comonomer, and at least 5 mole percent hexafluoropropylene comonomer, based on the total mole percent of the first polymer; a second layer comprising polyvinylidene fluoride; and a third layer comprising a third polymer, the third polymer comprising at least 50 mole percent of a methyl methacrylate comonomer, based on the total mole percent of the third polymer, wherein at least a portion of the first major surface is a microstructured, anisotropic surface comprising features having at least one dimension in a range from 1 micrometer to 500 micrometers, wherein the dispersed phase comprises an antimicrobial material, and wherein at least a portion of the dispersed phase is present on the microstructured, anisotropic surface. a first layer comprising a first polymer forming the polymer matrix, the first polymer comprising at least 35 mole percent tetrafluoroethylene comonomer, at least 15 mole percent vinylidene fluoride comonomer, and at least 5 mole percent hexafluoropropylene comonomer, based on the total mole percent of the first polymer; a second layer comprising polyvinylidene fluoride; and a third layer comprising a third polymer, the third polymer comprising at least 50 mole percent of a methyl methacrylate comonomer, based on the total mole percent of the third polymer, wherein at least a portion of the first major surface is a microstructured, anisotropic surface comprising features having at least one dimension in a range from 1 micrometer to 500 micrometers, wherein the dispersed phase comprises an antimicrobial material, and wherein at least a portion of the dispersed phase is present on the microstructured, anisotropic surface.
A system comprising: a pulse source outputting pulses which are less than or equal to approximately 10 ns at a variable repetition rate in a range from 1kHz to less than 10 MHz, said pulse source comprising: alight source (61, 71); and a fiber amplifier (72, 103) with positive group-velocity dispersion at an emission wavelength of said light source receiving an output of said light source, and causing spectral generation by self phase modulation in said fiber amplifier, wherein said fiber amplifier is one of a multimode fiber and a holey fiber and wherein positive GVD has a negative value of dispersion when expressed in units of ps/nm/km, characterised by the light source comprising a q-switched microchip laser outputting pulses having a pulse energy equal to or greater than 500 nJ. a pulse source outputting pulses which are less than or equal to approximately 10 ns at a variable repetition rate in a range from 1kHz to less than 10 MHz, said pulse source comprising: alight source (61, 71); and a fiber amplifier (72, 103) with positive group-velocity dispersion at an emission wavelength of said light source receiving an output of said light source, and causing spectral generation by self phase modulation in said fiber amplifier, wherein said fiber amplifier is one of a multimode fiber and a holey fiber and wherein positive GVD has a negative value of dispersion when expressed in units of ps/nm/km, characterised by the light source comprising a q-switched microchip laser outputting pulses having a pulse energy equal to or greater than 500 nJ. alight source (61, 71); and a fiber amplifier (72, 103) with positive group-velocity dispersion at an emission wavelength of said light source receiving an output of said light source, and causing spectral generation by self phase modulation in said fiber amplifier, wherein said fiber amplifier is one of a multimode fiber and a holey fiber and wherein positive GVD has a negative value of dispersion when expressed in units of ps/nm/km, characterised by the light source comprising a q-switched microchip laser outputting pulses having a pulse energy equal to or greater than 500 nJ.
Composition comprising a first polyamide, a second polyamide distinct from the first polyamide and from 0.1 to 5% by weight of carbon-based nanofillers, in which: - the first polyamide comprises a unit resulting from the condensation of meta-xylylenediamine or of a mixture of meta-xylylenediamine and para-xylylenediamine with sebacic acid, said first polyamide exhibiting a melting point Tf 1; - the second polyamide exhibits a melting point Tf 2 of greater than or equal to Tf 1 -40°C, and in which the carbon-based nanofillers are carbon nanotubes. - the first polyamide comprises a unit resulting from the condensation of meta-xylylenediamine or of a mixture of meta-xylylenediamine and para-xylylenediamine with sebacic acid, said first polyamide exhibiting a melting point Tf 1; - the second polyamide exhibits a melting point Tf 2 of greater than or equal to Tf 1 -40°C,
An excavator comprising: a lower traveling body; an upper turning body turnably mounted to the lower traveling body; a work attachment including a boom, an arm, and an end attachment, attached to the upper turning body; a surrounding information acquisition device configured to output information to a control device (30, 30A, 30B); a plurality of hydraulic actuators comprising a boom cylinder, an arm cylinder, and a bucket cylinder; a hydraulic pump configured to supply hydraulic oil to the hydraulic actuators; an electric motor configured to drive the hydraulic pump; an operation device of an electric type configured to operate the hydraulic actuators; and the control device (30, 30A, 30B) configured to control the electric motor, wherein in response to determining that the operation device is not operated, the control device (30, 30A, 30B) causes the hydraulic pump to be automatically stopped, thus stopping the hydraulic pump, and subsequently, in response to determining that an operation with respect to the operation device is started, the control device (30, 30A, 30B) causes the automatically stopped hydraulic pump to be automatically activated. a lower traveling body; an upper turning body turnably mounted to the lower traveling body; a work attachment including a boom, an arm, and an end attachment, attached to the upper turning body; a surrounding information acquisition device configured to output information to a control device (30, 30A, 30B); a plurality of hydraulic actuators comprising a boom cylinder, an arm cylinder, and a bucket cylinder; a hydraulic pump configured to supply hydraulic oil to the hydraulic actuators; an electric motor configured to drive the hydraulic pump; an operation device of an electric type configured to operate the hydraulic actuators; and the control device (30, 30A, 30B) configured to control the electric motor, wherein in response to determining that the operation device is not operated, the control device (30, 30A, 30B) causes the hydraulic pump to be automatically stopped, thus stopping the hydraulic pump, and subsequently, in response to determining that an operation with respect to the operation device is started, the control device (30, 30A, 30B) causes the automatically stopped hydraulic pump to be automatically activated.
An image intensifier comprising: a vacuum package assembly; a photocathode sealingly attached to the vacuum package assembly to thereby define a vacuum chamber, the photocathode having a bottom face comprising a photo-emissive surface; an anode positioned inside the vacuum chamber, the anode having a front surface comprising an electron sensitive surface, wherein the electron sensitive surface is oriented to face the photo-emissive surface; characterized in that: a resilient spring assembly is attached in part to the vacuum package assembly and in part to a back surface of the anode. a vacuum package assembly; a photocathode sealingly attached to the vacuum package assembly to thereby define a vacuum chamber, the photocathode having a bottom face comprising a photo-emissive surface; an anode positioned inside the vacuum chamber, the anode having a front surface comprising an electron sensitive surface, wherein the electron sensitive surface is oriented to face the photo-emissive surface; characterized in that: a resilient spring assembly is attached in part to the vacuum package assembly and in part to a back surface of the anode.
An assembly line comprising: a conveyor belt; an energy charging system comprising: a resonator comprising a transmitter resonator provided at a charging station located at a fixed position along a path of the conveyor belt and a receiver resonator mounted on and transported by the conveyor belt; an impedance matching network in communication with the resonator; and an energy storage device in communication with at least one of the resonator and the impedance matching network; and an electronic device powered by the energy storage device, wherein V min is a minimum voltage of the energy storage device that can provide enough energy to the electronic device before the next charging event happens, wherein V cap is a voltage across the energy storage device measured by the energy charging system in real time, and wherein the transmitter resonator is configured to transfer energy to the receiver resonator when the V cap is less than the V min. a conveyor belt; an energy charging system comprising: a resonator comprising a transmitter resonator provided at a charging station located at a fixed position along a path of the conveyor belt and a receiver resonator mounted on and transported by the conveyor belt; an impedance matching network in communication with the resonator; and an energy storage device in communication with at least one of the resonator and the impedance matching network; and a resonator comprising a transmitter resonator provided at a charging station located at a fixed position along a path of the conveyor belt and a receiver resonator mounted on and transported by the conveyor belt; an impedance matching network in communication with the resonator; and an energy storage device in communication with at least one of the resonator and the impedance matching network; and an electronic device powered by the energy storage device, wherein V min is a minimum voltage of the energy storage device that can provide enough energy to the electronic device before the next charging event happens, wherein V cap is a voltage across the energy storage device measured by the energy charging system in real time, and wherein the transmitter resonator is configured to transfer energy to the receiver resonator when the V cap is less than the V min.
An antenna (100, 400, 600, 700) comprising: a ground plane; a driven element disposed in a first layer and configured to excite a right hand circularly polarized wave; a plurality of elementary cells arranged in the first layer around the driven element, wherein at least one elementary cell of the plurality of elementary cells is different from each of the remaining elementary cells in the plurality of elementary cells, and each elementary cell of the plurality of elementary cells comprises a first conductor located in the first layer above and parallel with the ground plane; and a first plurality of circuit elements (104, 105, 203, 206, 602, 701), each circuit element (104, 105, 203, 206, 602, 701) of the first plurality of circuit elements (104, 105, 203, 206, 602, 701) connecting a particular pair of elementary cells in the plurality of elementary cells such that the antenna (100, 400, 600, 700) maintains a 4-fold rotational symmetry relative to a vertical axis orthogonal to the ground plane. a ground plane; a driven element disposed in a first layer and configured to excite a right hand circularly polarized wave; a plurality of elementary cells arranged in the first layer around the driven element, wherein at least one elementary cell of the plurality of elementary cells is different from each of the remaining elementary cells in the plurality of elementary cells, and each elementary cell of the plurality of elementary cells comprises a first conductor located in the first layer above and parallel with the ground plane; and a first plurality of circuit elements (104, 105, 203, 206, 602, 701), each circuit element (104, 105, 203, 206, 602, 701) of the first plurality of circuit elements (104, 105, 203, 206, 602, 701) connecting a particular pair of elementary cells in the plurality of elementary cells such that the antenna (100, 400, 600, 700) maintains a 4-fold rotational symmetry relative to a vertical axis orthogonal to the ground plane.
A data processing system comprising a server which is configured to receive an access to a predetermined URL and to execute requested data processing, a terminal which is configured to request data processing to the server, and a center apparatus which is connectable to the server and the terminal, the center apparatus comprising a device which is configured to receive data input, and to transmit a data input program to the terminal for transmitting the input data to the center apparatus, and a device which is configured to receive a request including both data to be processed and the URL of the server from the terminal, to access the received URL, and to transmit the data to be processed to the server by an HTTP protocol, requests data processing to the server based on the received request and the center apparatus configured to receive information for identifying a session from the server when the center apparatus transmits the data to be processed to the server, and to store the information for identifying the session in association with the terminal identifier of the terminal which transmitted the data to be processed, the center apparatus also being configured to receive a request identifier with the request from the terminal, to request data processing to the server based on the received request and to send the information for identifying the session to the server, where the information for identifying the session is stored in association with the terminal identifier identifying the terminal which sent the request, the center apparatus being configured to receive a response to the request from the server, and to send information based on the response to the terminal, together with the request identifier received from the terminal, and the terminal being configured to operate in accordance with the data input program transmitted from the center apparatus, to receive the input of the data to be processed, and to transmit the received data and the URL of the server to the center apparatus.
A pharmaceutical combination product comprising: - a liposomal formulation exclusively containing a bacterial lipopolysaccharide; and - at least one cytotoxic compound. - a liposomal formulation exclusively containing a bacterial lipopolysaccharide; and - at least one cytotoxic compound.
A cooking appliance comprising: a cabinet having a cooking chamber; at least one radiant heating element located within the cooking chamber; an infrared sensor having a sensing field including at least a portion of the cooking chamber;and a low emissive optical element (350, 352) located between the radiant heating element and the infrared sensor, characterized in that the optical element (350, 352) comprises at least one of a plastic or glass element (350, 352) with a low emissive coating, and wherein the emissivity of the low emissive glass (350, 352) is less than 0.03. a cabinet having a cooking chamber; at least one radiant heating element located within the cooking chamber; an infrared sensor having a sensing field including at least a portion of the cooking chamber;and a low emissive optical element (350, 352) located between the radiant heating element and the infrared sensor, characterized in that the optical element (350, 352) comprises at least one of a plastic or glass element (350, 352) with a low emissive coating,
A hand support, comprising: a base component arranged for securing to at least a portion of a hand, the base component defines an opening arranged for insertion of a thumb; an anchor element adjustably connected to the base component and arranged for grasping a thumb; wherein an elastic element has a first end rotatably anchored to the base component about the opening and a second end securing to the anchor element, the elastic element selectively arranged in height relative to and from the base component. a base component arranged for securing to at least a portion of a hand, the base component defines an opening arranged for insertion of a thumb; an anchor element adjustably connected to the base component and arranged for grasping a thumb; wherein an elastic element has a first end rotatably anchored to the base component about the opening and a second end securing to the anchor element, the elastic element selectively arranged in height relative to and from the base component.
A subsea power converter (100, 200, 400) adapted to receive a direct current via a first transmission line (110, 210, 410) and adapted to output a three-phase alternating current via a second transmission line (120, 220, 420), said power converter comprising: at least three branch units (130, 230), wherein a branch unit is: electrically connectable to the first transmission line and the second transmission line; and adapted to convert the received DC into a respective phase of the output three-phase AC; characterised in that each branch unit (130, 230) is arranged in a sealed enclosure which is separately arranged from sealed enclosures of the other branch units: and said power converter further comprises at least one redundant branch unit (140, 240) that is arranged in a separate, sealed enclosure and is interchangeable with any one of said at least three branch units. electrically connectable to the first transmission line and the second transmission line; and adapted to convert the received DC into a respective phase of the output three-phase AC; characterised in that each branch unit (130, 230) is arranged in a sealed enclosure which is separately arranged from sealed enclosures of the other branch units: and said power converter further comprises at least one redundant branch unit (140, 240) that is arranged in a separate, sealed enclosure and is interchangeable with any one of said at least three branch units.
Cosmetic composition comprising, in a cosmetically acceptable medium: - one or more vinyformamide/vinyformamine copolymers comprising: from 20 to 40 mol% of units of following formula A: and from 60 to 80 mol% of units of following formula B: the vinyformamide/vinyformamine copolymer(s) being constituted solely of units of formula A and units of formula B, and - one or more associative thickening polymers other than the vinylformamide/vinylformamine copolymers. - one or more vinyformamide/vinyformamine copolymers comprising: from 20 to 40 mol% of units of following formula A: and from 60 to 80 mol% of units of following formula B: the vinyformamide/vinyformamine copolymer(s) being constituted solely of units of formula A and units of formula B, and from 20 to 40 mol% of units of following formula A: and from 60 to 80 mol% of units of following formula B: the vinyformamide/vinyformamine copolymer(s) being constituted solely of units of formula A and units of formula B, - one or more associative thickening polymers other than the vinylformamide/vinylformamine copolymers.
A protective device comprising at least one protective element (SD1, SD2) for the protection of an electrical system against impairment and/or destruction by a disruptive event, wherein the protective device has a status detection device which monitors the at least one protective element (SD1, SD2), which status detection device is configured to perform measurements for detecting a predefined status of the at least one protective element (SD1, SD2), and a switching device actuated by the status detection device, which is configured to deactivate the at least one protective element (SD1, SD2) when the status detection device detects the predefinable status of the at least one protective element (SD1, SD2), characterized in that the protective device has at least one back-up protective element (SD1 a, SD2a), which can be activated by the switching device, wherein the switching device activates the back-up protective element (SD1a, SD2a) after the switching device has deactivated the protective element (SD1, SD2), that deactivation is implemented by the switching device only after a predefinable number of measurements, wherein with each of these measurements, the predefinable status of the at least one protective element (SD1, SD2) has been detected, and that the switching device has a relay with a number of break-contact elements (3a, 3b) and/or make-contact elements (3c, 3d), wherein the relay is embodied as a bistable relay.
An infrared sensor for temperature sensing comprising - a cap covering a substrate, - an IR-radiation filtering window in the cap, the window being transparent to IR radiation from a source external to the cap, the infrared sensor being characterized in that it furthermore comprises - a first sensing element, comprising a set of N thermocouples on the substrate covered by the cap, whose hot junctions may receive radiation from a source external to the sensor, the thermocouples of the first sensing element being connected in parallel with one another, - a second sensing element comprising a set of N thermocouples on the substrate covered by the cap whose hot junctions may not receive radiation from a source external to the sensor, the thermocouples of the second sensing element being connected in parallel with one another, - first connection modules for connecting a number N1 of thermocouples of the first sensing element, second connection modules for connecting a number N2 of thermocouples of the second sensing element, the number N1 and the number N2 being equal or smaller than N, at least one of the numbers N1 or N2 being smaller than N, N1 being different from N2; - connecting means for connecting in series an output of the first connection modules of the first sensing element with an output of the second connection modules of the second sensing element, and - an output (407, 408) for outputting the combined outputs of the first and second sensing elements (410, 420). - a cap covering a substrate, - an IR-radiation filtering window in the cap, the window being transparent to IR radiation from a source external to the cap, - a first sensing element, comprising a set of N thermocouples on the substrate covered by the cap, whose hot junctions may receive radiation from a source external to the sensor, the thermocouples of the first sensing element being connected in parallel with one another, - a second sensing element comprising a set of N thermocouples on the substrate covered by the cap whose hot junctions may not receive radiation from a source external to the sensor, the thermocouples of the second sensing element being connected in parallel with one another, - first connection modules for connecting a number N1 of thermocouples of the first sensing element, second connection modules for connecting a number N2 of thermocouples of the second sensing element, the number N1 and the number N2 being equal or smaller than N, at least one of the numbers N1 or N2 being smaller than N, N1 being different from N2; - connecting means for connecting in series an output of the first connection modules of the first sensing element with an output of the second connection modules of the second sensing element, and - an output (407, 408) for outputting the combined outputs of the first and second sensing elements (410, 420).
Method for the plasma-nitriding of precipitation hardenable stainless steels or stainless maraging steels, wherein a stainless steel product is produced in the required dimensions before plasma-nitriding is carried out, characterized in that plasma-nitriding is carried out at a temperature chosen between 300° and 500° Celsius, and simultaneously with precipitation hardening.