mhurhangee/ep-ind-claims huggingface dataset:
A mineral foam comprising: - 50 to 80% by weight, this percentage being related to the weight in the mineral foam, of a hydraulic binder of the ettringite type, characterized, prior to being contacted with water, in that it comprises at least one phase selected from C3A, CA, C12A7, C11A7CaF2, C4A3$ (ye'elemite), C2A(1-x)Fx (where x belongs to]0, 1]), hydraulic amorphous phases having a C/A molar ratio ranging from 0.3 to 15 and such that cumulated amounts of Al203 of these phases be ranging from 3 to 70%, and 10 to 50% of calcium sulfate, the percentages being in weight related to the total weight of the hydraulic binder, - from 1 to 30% by weight, this percentage being related to the dry matter total weight in the mineral foam, of at least one filler selected from reactive fillers (ie) those taking part to the hydration reaction of the hydraulic binder, - 10 to 40% by weight related to the total weight of the mineral foam, of a solvent, said solvent being aqueous and/or non aqueous, - 2 to 10% by weight related to the total weight of the mineral foam, of a filler - a gas such as air, carbon dioxide or nitrogen. - 50 to 80% by weight, this percentage being related to the weight in the mineral foam, of a hydraulic binder of the ettringite type, characterized, prior to being contacted with water, in that it comprises at least one phase selected from C3A, CA, C12A7, C11A7CaF2, C4A3$ (ye'elemite), C2A(1-x)Fx (where x belongs to]0, 1]), hydraulic amorphous phases having a C/A molar ratio ranging from 0.3 to 15 and such that cumulated amounts of Al203 of these phases be ranging from 3 to 70%, and 10 to 50% of calcium sulfate, the percentages being in weight related to the total weight of the hydraulic binder, - from 1 to 30% by weight, this percentage being related to the dry matter total weight in the mineral foam, of at least one filler selected from reactive fillers (ie) those taking part to the hydration reaction of the hydraulic binder, - 10 to 40% by weight related to the total weight of the mineral foam, of a solvent, said solvent being aqueous and/or non aqueous, - 2 to 10% by weight related to the total weight of the mineral foam, of a filler - a gas such as air, carbon dioxide or nitrogen.
A photographing method, wherein the method comprises: establishing, by a first terminal device, a connection to a second terminal device, wherein the first terminal device has an image shooting function, and the second terminal device comprises an image output device; enabling, by the first terminal device, the image shooting function based on a first operation of a user, and obtaining and displaying a preview image; and receiving and displaying, by the first terminal device when the preview image comprises an image of the image output device of the second terminal device and upon request of the first terminal device to the second terminal device, a first image sent by the second terminal device, wherein the first image comprises content currently played by the image output device of the second terminal device. establishing, by a first terminal device, a connection to a second terminal device, wherein the first terminal device has an image shooting function, and the second terminal device comprises an image output device; enabling, by the first terminal device, the image shooting function based on a first operation of a user, and obtaining and displaying a preview image; and receiving and displaying, by the first terminal device when the preview image comprises an image of the image output device of the second terminal device and upon request of the first terminal device to the second terminal device, a first image sent by the second terminal device, wherein the first image comprises content currently played by the image output device of the second terminal device.
A interstitial fluid collection kit for collecting interstitial fluid extracted via micropores formed in a skin, comprising: a marker sheet that has an adhesive face and that defines a region in which micropores are to be formed; and an interstitial fluid collection sheet formed in a region defined by the marker sheet adhered to a skin, the interstitial fluid collection sheet comprising: a transparent retention sheet having an adhesive face; and a collecting body that is retained by a part of the adhesive face of the retention sheet and that collects interstitial fluid extracted from the skin, characterized in that: the adhesive face of the retention sheet is adhered to a back face of the adhesive face of the marker sheet with a adhesive strength lower than an adhesive strength of the marker sheet to the skin. a transparent retention sheet having an adhesive face; and a collecting body that is retained by a part of the adhesive face of the retention sheet and that collects interstitial fluid extracted from the skin, characterized in that: the adhesive face of the retention sheet is adhered to a back face of the adhesive face of the marker sheet with a adhesive strength lower than an adhesive strength of the marker sheet to the skin.
A propylene polymer composition comprising: a) from 35 wt% to 65 wt% of a propylene 1-hexene copolymer containing from 10.2 to 13.0% by weight, of 1-hexene derived units having a Melt Flow Rate (MFR, measured according to ASTM D 1238, 230°C/2.16 kg, i.e. at 230°C, with a load of 2.16 kg) from 3.5 to 12.0 g/10 min; b) from 35 wt% to 65 wt% of a propylene ethylene copolymer containing from 1.5 wt% to 6.5 wt% of ethylene derived units, a having a Melt Flow Rate (MFR, measured according to ASTM D 1238, 230°C/2.16 kg, i.e. at 230°C, with a load of 2.16 kg) from 3.5 to 12.0 g/10 min; the sum of the amount of a) and b) being 100. a) from 35 wt% to 65 wt% of a propylene 1-hexene copolymer containing from 10.2 to 13.0% by weight, of 1-hexene derived units having a Melt Flow Rate (MFR, measured according to ASTM D 1238, 230°C/2.16 kg, i.e. at 230°C, with a load of 2.16 kg) from 3.5 to 12.0 g/10 min; b) from 35 wt% to 65 wt% of a propylene ethylene copolymer containing from 1.5 wt% to 6.5 wt% of ethylene derived units, a having a Melt Flow Rate (MFR, measured according to ASTM D 1238, 230°C/2.16 kg, i.e. at 230°C, with a load of 2.16 kg) from 3.5 to 12.0 g/10 min; the sum of the amount of a) and b) being 100.
An ophthalmic surgical microscope, comprising: a movable optical element positioned in an optical pathway of light reflected from a surgical field, the movable optical element being configured to oscillate in a direction along the optical pathway; an actuator coupled to the movable optical element and configured to move the movable optical element in response to a control signal; and a computing device in communication with the actuator and configured to generate the control signal to move the movable optical element an image sensor positioned in the optical pathway such that the movable optical element is disposed between the surgical field and the image sensor and configured to receive the light reflected from the surgical field, characterized in that the surgical microscope further comprises a sensor configured to sense a z-axis position of the optical element; and the computing device further configured to process image data generated from the received reflected light by selecting in-focus image data associated with plurality of focal planes, wherein selecting in-focus image data includes associating the image data with positions of the movable optical element during oscillation, selecting in-focus positions of the image data based on the positions of the movable optical element and overlaying the in-focus image data to generate the processed image data. a movable optical element positioned in an optical pathway of light reflected from a surgical field, the movable optical element being configured to oscillate in a direction along the optical pathway; an actuator coupled to the movable optical element and configured to move the movable optical element in response to a control signal; and a computing device in communication with the actuator and configured to generate the control signal to move the movable optical element an image sensor positioned in the optical pathway such that the movable optical element is disposed between the surgical field and the image sensor and configured to receive the light reflected from the surgical field, characterized in that the surgical microscope further comprises a sensor configured to sense a z-axis position of the optical element; and the computing device further configured to process image data generated from the received reflected light by selecting in-focus image data associated with plurality of focal planes, wherein selecting in-focus image data includes associating the image data with positions of the movable optical element during oscillation, selecting in-focus positions of the image data based on the positions of the movable optical element and overlaying the in-focus image data to generate the processed image data.
A recording device comprising: a recording unit configured to perform recording on a medium by ejecting liquid; a transporting belt that has a base material having a first surface provided with an adhesive layer to which the medium is stuck and a second surface which is a surface opposite to the first surface, the transporting belt being configured to transport the medium; a pressing unit configured to press the medium against the transporting belt; a cleaning member configured to clean the adhesive layer by contacting the adhesive layer; a storage unit in which fluid for cleaning the cleaning member is stored; and characterized by a cooling unit having a flow path through which fluid flows and a contacting unit that contacts the second surface, the contacting unit being coupled to the flow path; wherein the flow path extends toward the storage unit: so that fluid flows from the cooling unit toward the storage unit, and the contacting unit contacts the second surface downstream of the pressing unit and upstream of the cleaning member in the revolving direction of the transporting belt. a recording unit configured to perform recording on a medium by ejecting liquid; a transporting belt that has a base material having a first surface provided with an adhesive layer to which the medium is stuck and a second surface which is a surface opposite to the first surface, the transporting belt being configured to transport the medium; a pressing unit configured to press the medium against the transporting belt; a cleaning member configured to clean the adhesive layer by contacting the adhesive layer; a storage unit in which fluid for cleaning the cleaning member is stored; and characterized by a cooling unit having a flow path through which fluid flows and a contacting unit that contacts the second surface, the contacting unit being coupled to the flow path; wherein the flow path extends toward the storage unit: so that fluid flows from the cooling unit toward the storage unit, and the contacting unit contacts the second surface downstream of the pressing unit and upstream of the cleaning member in the revolving direction of the transporting belt.
A method for a Secure User Plane Location, SUPL enabled terminal, SET, the method comprising: receiving an initiation message from a SUPL Location Platform, SLP to start a location session, the initiation message including service capabilities of the SLP; transmitting capabilities of the SET to the SLP; communicating with the SLP to determine at least one position estimate for the SET; and wherein the service capabilities of the SLP include positioning protocol capabilities of the SLP. receiving an initiation message from a SUPL Location Platform, SLP to start a location session, the initiation message including service capabilities of the SLP; transmitting capabilities of the SET to the SLP; communicating with the SLP to determine at least one position estimate for the SET; and wherein the service capabilities of the SLP include positioning protocol capabilities of the SLP.
A drug delivery system, comprising a delivery vehicle containing a phospholipid and cholesterol, wherein the phospholipid is a mixture of a first phospholipid and a second phospholipid, the first phospholipid being DOPC, POPC, SPC, or EPC and the second phospholipid being PEG-DSPE or DOPG, wherein the mole percentage of cholesterol in the delivery vehicle is 10-33; and a therapeutic agent that is an antagonist specific to VEGF or a water soluble corticosteroid, wherein the antagonist specific to VEGF is an antibody specific to VEGF or a soluble VEGF receptor; wherein 50-90% of the therapeutic agent is in non-associated form, and the weight ratio of the phospholipid and cholesterol in combination to the therapeutic agent is 5-80 to 1; and with the proviso that when the first phospholipid is DOPC and the second phospholipid is DOPG, the mole percentage of DOPG in the delivery vehicle is 3-18.75 and the mole percentage of DOPC in the delivery vehicle is 29.5-90.
A method for sterilizing a gas or liquid, comprising contacting a microorganism in a gas or liquid with a material containing an amorphous carbon having a sulfo group introduced therein wherein the material containing an amorphous carbon having a sulfo group introduced therein is obtainable by (a) condensation and sulfonation of an incompletely carbonized waste wood or sawdust or at least one incompletely carbonized polycyclic aromatic hydrocarbon selected from anthracene, perylene, coronene and sulfo compounds thereof having an element ratio of hydrogen to carbon of 0.3 to 1.5, through heat treatment with sulfur trioxide or a sulfonating agent containing sulfur trioxide; or (b) condensation and sulfonation of at least one polycyclic aromatic hydrocarbon having 2 to 7 condensed aromatic rings through heat treatment in a concentrated or fuming sulfuric acid; or (c) introducing a sulfo group in an aromatic hydrocarbon or partially carbonized saccharide through heat treatment in a concentrated or fuming sulfuric acid, and the material has the following properties; chemical shifts of a condensed 6-membered aromatic carbon ring and a condensed 6-membered aromatic carbon ring having a sulfo group bound thereto are detected in a 13 C nuclear magnetic resonance spectrum, at least a diffraction peak of a carbon plane whose half-value width (2θ) is 5 to 30° in powder X-ray diffraction is detected, and it exhibits proton conductivity. (a) condensation and sulfonation of an incompletely carbonized waste wood or sawdust or at least one incompletely carbonized polycyclic aromatic hydrocarbon selected from anthracene, perylene, coronene and sulfo compounds thereof having an element ratio of hydrogen to carbon of 0.3 to 1.5, through heat treatment with sulfur trioxide or a sulfonating agent containing sulfur trioxide; or (b) condensation and sulfonation of at least one polycyclic aromatic hydrocarbon having 2 to 7 condensed aromatic rings through heat treatment in a concentrated or fuming sulfuric acid; or (c) introducing a sulfo group in an aromatic hydrocarbon or partially carbonized saccharide through heat treatment in a concentrated or fuming sulfuric acid, and the material has the following properties; chemical shifts of a condensed 6-membered aromatic carbon ring and a condensed 6-membered aromatic carbon ring having a sulfo group bound thereto are detected in a 13 C nuclear magnetic resonance spectrum, at least a diffraction peak of a carbon plane whose half-value width (2θ) is 5 to 30° in powder X-ray diffraction is detected, and it exhibits proton conductivity.
An operation input device for use by a user while being held by the user's hand, comprising: captured image obtaining means for obtaining a captured image captured by an image capturing unit attached to the operation input device; and posture determining means (14, 22) for determining posture of the operation input device, based on a result of analysis on the captured image obtained, wherein the posture determining means (14, 22) specifies an entirety or a part of a face of the user holding the operation input device as a target object contained in the captured image obtained, and determines the posture of the operation input device; and in determining the posture of the operation input device a roll angle, a pitch angle, and a yaw angle of the operation input device with respect to a reference posture of the operation input device are calculated only based on the captured image from a position (Pf) and an orientation (Df) of the entirety or the part of the face of the user. captured image obtaining means for obtaining a captured image captured by an image capturing unit attached to the operation input device; and posture determining means (14, 22) for determining posture of the operation input device, based on a result of analysis on the captured image obtained, wherein the posture determining means (14, 22) specifies an entirety or a part of a face of the user holding the operation input device as a target object contained in the captured image obtained, and determines the posture of the operation input device; and in determining the posture of the operation input device a roll angle, a pitch angle, and a yaw angle of the operation input device with respect to a reference posture of the operation input device are calculated only based on the captured image from a position (Pf) and an orientation (Df) of the entirety or the part of the face of the user.
A cathode comprising: a cathode layer comprising a porous electrically and ionically conductive material, the porous electrically and ionically conductive material comprising a porous conductive metal oxide particle having a pore-shell structure with a hollow pore; wherein the cathode comprises less than 3 volume percent of oxidizable carbon, wherein the porous conductive metal oxide particle has a porosity of at least 60 percent by volume based on the total volume of the particle, wherein the porous conductive metal oxide particle includes a metal oxide shell having an internal face; and a functional layer deposited on the internal face. a cathode layer comprising a porous electrically and ionically conductive material, the porous electrically and ionically conductive material comprising a porous conductive metal oxide particle having a pore-shell structure with a hollow pore; wherein the cathode comprises less than 3 volume percent of oxidizable carbon, wherein the porous conductive metal oxide particle has a porosity of at least 60 percent by volume based on the total volume of the particle, wherein the porous conductive metal oxide particle includes a metal oxide shell having an internal face; and a functional layer deposited on the internal face.
A fuel cell system comprising a solid oxide fuel cell configured to generate power by receiving supply of fuel gas and oxidant gas, the fuel cell system further comprising: a discharging passage configured to allow fuel off-gas and oxidant off-gas discharged by the fuel cell to be discharged as discharged gas to outside; a discharged-gas temperature detection unit (56,80) configured to detect or estimate a temperature of the discharged gas to be discharged from the discharging passage; an air supplying unit configured to supply air to the discharging passage; and an air control unit configured to control air supply to be executed by the air supplying unit on a basis of the detected or estimated temperature, wherein; the air control unit controls the air supplying unit so that the discharged gas to be discharged from the air discharging passage has a predetermined temperature or lower, the fuel cell system is used in a vehicle, and the predetermined temperature is set according to a vehicle speed, so that the predetermined temperature is higher as the vehicle speed is faster. a discharging passage configured to allow fuel off-gas and oxidant off-gas discharged by the fuel cell to be discharged as discharged gas to outside; a discharged-gas temperature detection unit (56,80) configured to detect or estimate a temperature of the discharged gas to be discharged from the discharging passage; an air supplying unit configured to supply air to the discharging passage; and an air control unit configured to control air supply to be executed by the air supplying unit on a basis of the detected or estimated temperature, wherein; the air control unit controls the air supplying unit so that the discharged gas to be discharged from the air discharging passage has a predetermined temperature or lower, the fuel cell system is used in a vehicle, and the predetermined temperature is set according to a vehicle speed, so that the predetermined temperature is higher as the vehicle speed is faster.
A bill softness recognition method, comprising: receiving bills; extracting and separating the bills to make the bills enter a bill channel in a separated manner; capturing a single-bill image and a bill background image of each of the extracted bills; rolling the extracted bill to make the bill press a plurality of prearranged force sensors; acquiring effective force signals fed back from the force sensors; acquiring an inclination angle of the bill based on the single-bill image and the bill background image; determining, based on the inclination angle, the force sensor that is pressed by the bill as an effective force sensor; and judging whether the effective force signal of the effective force sensor meets a preset softness condition, and determining the bill as a soft bill if the effective force signal meets the preset softness condition. receiving bills; extracting and separating the bills to make the bills enter a bill channel in a separated manner; capturing a single-bill image and a bill background image of each of the extracted bills; rolling the extracted bill to make the bill press a plurality of prearranged force sensors; acquiring effective force signals fed back from the force sensors; acquiring an inclination angle of the bill based on the single-bill image and the bill background image; determining, based on the inclination angle, the force sensor that is pressed by the bill as an effective force sensor; and judging whether the effective force signal of the effective force sensor meets a preset softness condition, and determining the bill as a soft bill if the effective force signal meets the preset softness condition.