mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: - a data transfer capable port configured to receive a data signal and for providing a first voltage to a first connected device; - a charge only capable port for providing a second voltage to a second connected device; - a power supply configured to generate the first voltage and the second voltage and for coupling the first voltage to the data transfer capable port and the second voltage to the charge only capable port; characterized by - a first light emitting diode proximate to the data transfer capable port wherein the first light emitting diode is configured to emit a first color light and a second color light; - a second light emitting diode proximate to the charge only capable port wherein the second light emitting diode is configured to emit the first color light; - a processor configured to detect a data connection request received at the charge only capable port and further configured to generate a control signal for switching the first light emitting diode from the first color light to the second color light in response to the data connection request. - a data transfer capable port configured to receive a data signal and for providing a first voltage to a first connected device; - a charge only capable port for providing a second voltage to a second connected device; - a power supply configured to generate the first voltage and the second voltage and for coupling the first voltage to the data transfer capable port and the second voltage to the charge only capable port; characterized by - a first light emitting diode proximate to the data transfer capable port wherein the first light emitting diode is configured to emit a first color light and a second color light; - a second light emitting diode proximate to the charge only capable port wherein the second light emitting diode is configured to emit the first color light; - a processor configured to detect a data connection request received at the charge only capable port and further configured to generate a control signal for switching the first light emitting diode from the first color light to the second color light in response to the data connection request.
Automatic coffee machine for preparing espresso coffee, comprising at least one infusion assembly having an infusion piston that can be actuated by motorized means, at least one container containing coffee beans to be ground, grinding means (4, 5) to grind the beans so as to prepare the doses of ground coffee, conveying means to convey said doses of ground coffee into a filter-holder element arranged under said piston, characterized in that said grinding means (4, 5) comprise a first and a second grinder that are actuated by a first and a second opposite motor (8, 9) arranged laterally to said infusion piston in a backward region with respect to the infusion piston and the filter-holder.
Apparatus for vacuum bag molding a composite part layup, comprising: a mold including a mold tool and a vacuum bag covering the part layup, wherein the mold tool includes an interior wall defining a mold cavity and having an opening therein; at least one sensor embedded in the mold tool and generating a signal representing a parameter sensed at the location of the sensor, wherein the sensor is mounted within the opening and senses a pressure within the mold cavity in the area of the opening; and, means for processing the sensor signal. a mold including a mold tool and a vacuum bag covering the part layup, wherein the mold tool includes an interior wall defining a mold cavity and having an opening therein; at least one sensor embedded in the mold tool and generating a signal representing a parameter sensed at the location of the sensor, wherein the sensor is mounted within the opening and senses a pressure within the mold cavity in the area of the opening; and, means for processing the sensor signal.
Process for the reactive decoating of carbon layers from a substrate, particularly for the reactive decoating of ta-C coatings from the surface of parts and tools, in which the substrate to be decoated is placed on a substrate holder in a vacuum chamber, the vacuum chamber is charged with at least one reactive gas supporting the removal of carbon in gaseous form, and a plasma discharge is initiated in the vacuum chamber to support the necessary chemical reaction or reactions to decoat the coated substrate, and the reactive decoating is carried out in one step or several steps, characterized in that the plasma discharge is produced as a direct current low voltage arc discharge, with discharge currents between 20 A and 1000 A, preferably between 50 A and 300 A, with discharge voltage of at most 120 V, preferably between 20 V and 80 V, and to remove at least a portion of the carbon coating from the substrate during at least one step of the reactive decoating, preferably during the last step of the reactive de-coating, a gas containing nitrogen gas is used as the reactive gas, wherein preferably the used nitrogen-containing reactive gas comprises predominantly nitrogen gas, and especially preferably the used nitrogen-containing reactive gas comprises essentially nitrogen gas.
A method for placing an indicia on a composite structure, the composite structure being formed from one or more layers of fiber-reinforced polymers and/or from one or more sandwich panels, the method comprising: printing the indicia on a first film surface of a coating film comprised of any one or a combination of polyurethane, polyamide, polyester, and epoxy, wherein the coating film is in a partially cured state when the printing of the indicia is performed: securing the coating film such that the coating film is substantially flat, wherein the securing of the coating film is performed prior to the printing of the indicia on the first film surface, wherein the securing of the coating film comprises securing the coating film such that the coating film is substantially prevented from moving while the printing of the indicia on the first film surface is performed; partially curing the composite structure such that the composite structure is in a partially cured state, wherein the partially cured state of the coating film and the composite structure indicates respectively the coating film and the composite structure being impregnated, coated, and/or saturated with a resin or other adhesive, which has changed from a liquid to a pliable solid state, but which has not fully polymerized or hardened; thereafter positioning the coating film on the composite structure such that a second film surface of the coating film faces and is positioned against a surface of the composite structure, wherein the second film surface is opposite the first film surface of the coating film; and co-curing the coating film and the composite structure, wherein the co-curing comprises co-curing the coating film and the composite structure while the coating film and the composite structure are engaged with a mold tooling. securing the coating film such that the coating film is substantially flat, wherein the securing of the coating film is performed prior to the printing of the indicia on the first film surface, wherein the securing of the coating film comprises securing the coating film such that the coating film is substantially prevented from moving while the printing of the indicia on the first film surface is performed; partially curing the composite structure such that the composite structure is in a partially cured state, wherein the partially cured state of the coating film and the composite structure indicates respectively the coating film and the composite structure being impregnated, coated, and/or saturated with a resin or other adhesive, which has changed from a liquid to a pliable solid state, but which has not fully polymerized or hardened; thereafter positioning the coating film on the composite structure such that a second film surface of the coating film faces and is positioned against a surface of the composite structure, wherein the second film surface is opposite the first film surface of the coating film; and co-curing the coating film and the composite structure, wherein the co-curing comprises co-curing the coating film and the composite structure while the coating film and the composite structure are engaged with a mold tooling.
A light emitting structure comprising: a sheet-shaped structure which absorbs excitation light and emits light with wavelength conversion and which has a maximum emission wavelength of 400 nm or more; and an antireflection material provided on a side surface of the sheet-shaped structure, wherein the sheet-shaped structure comprises: a substrate that is any one of an inorganic glass and a resin plate; and a sheet-shaped member provided on at least one surface side of the substrate, wherein the sheet-shaped member absorbs excitation light and emits light with wavelength conversion, and a maximum emission wavelength thereof is 400 nm or more, wherein the sheet-shaped member (10 A) is a light emitting layer comprising a resin and the wavelength conversion material is dispersed in the resin, wherein the sheet-shaped structure comprises two substrates (11, 12), wherein the sheet-shaped member is disposed between the two substrates (11, 12), and wherein the light emitting layer (10 A) is recessed inwardly to form a recess or expands outwardly to form a projection (10 D) on the side surface of the sheet-shaped structure. a sheet-shaped structure which absorbs excitation light and emits light with wavelength conversion and which has a maximum emission wavelength of 400 nm or more; and an antireflection material provided on a side surface of the sheet-shaped structure, wherein the sheet-shaped structure comprises: a substrate that is any one of an inorganic glass and a resin plate; and a sheet-shaped member provided on at least one surface side of the substrate, wherein the sheet-shaped member absorbs excitation light and emits light with wavelength conversion, and a maximum emission wavelength thereof is 400 nm or more, a substrate that is any one of an inorganic glass and a resin plate; and a sheet-shaped member provided on at least one surface side of the substrate, wherein the sheet-shaped member absorbs excitation light and emits light with wavelength conversion, and a maximum emission wavelength thereof is 400 nm or more, wherein the sheet-shaped member (10 A) is a light emitting layer comprising a resin and the wavelength conversion material is dispersed in the resin, wherein the sheet-shaped structure comprises two substrates (11, 12), wherein the sheet-shaped member is disposed between the two substrates (11, 12), and wherein the light emitting layer (10 A) is recessed inwardly to form a recess or expands outwardly to form a projection (10 D) on the side surface of the sheet-shaped structure.
Fluid movement speed measuring device, this device including a case and a moving part partially arranged inside the case and partially arranged outside the case, this moving part including a moving rod, this moving rod including a drag rod arranged outside the case and a stabilization rod arranged inside the case, the drag rod and the stabilization rod being aligned with each other and integral with each other, this measuring device including means for determining a deviation of the position of the moving part compared to a rest position of this moving part, this rest position being the position of the moving part in the absence of flow of the fluid, this measuring device being characterized in that the moving part comprises a stabilization magnet, in that the case contains at least one repulsion magnet arranged so as to push the stabilization magnet of the moving part towards said rest position and in that the moving part moves in a revolution cone whose apex is the center of gravity of this moving part.
A computer device (200, 300, 400, 500, 600), comprising a power control system a computer system, a power system, and a cooling system, wherein the power system is configured for providing supply voltages to each component of the computer device (200, 300, 400, 500, 600) in an operating state, and the power control system is coupled to the computer system, the power system, and the cooling system, the computer device (200, 300, 400, 500, 600) being characterized in that when the computer system receives an OFF signal in the operating state, the computer system is configured to transmit the received OFF signal to the power system and when the power control system is in an overclocking frequency mode, the power control system is configured to intercept and cut off the OFF signal transmitted from the computer system to the power system and to send a SYSTEM-SHUTDOWN signal to the computer system so as to control the computer system to enter a non-operating state, to control the power system to keep outputting supply voltages, wherein, as the power control system stays in the overclocking frequency mode, providing the supply voltage to the cooling system is maintained such that the cooling system maintains normal operation, wherein when the computer system receives the OFF signal in the operating state and when the power control system is not in the overclocking frequency mode, the power control system is configured to control the computer system and the power system such that both enter the non-operating state, and wherein the non-operating state refers to a state complying with the S3 mode, S4 mode or, S5 mode according to the advanced configuration and power interface standard, ACPI, and the operating state refers to a S0 mode standard of the ACPI.
A back-illuminated distance measuring sensor comprising: a semiconductor substrate having a light incident surface and a surface opposed to the light incident surface; a photo gate electrode provided on the surface; a first gate electrode and a second gate electrode each of the first and second gate electrodes being provided adjacent to the photo gate electrode on the surface; and an electric field concentrated area positioned immediately under the photo gate electrode, the first gate electrode and the second gate electrode; a first semiconductor area and a second semiconductor area for respectively reading carriers from the electric field concentrated area, wherein the substrate has a first conductive type, wherein the electric field concentrated area has the first conductive type, wherein each of the first and second semiconductor areas has a second conductive type, and characterized in that the electric field concentrated area has a higher impurity density than the impurity density of the semiconductor substrate. a semiconductor substrate having a light incident surface and a surface opposed to the light incident surface; a photo gate electrode provided on the surface; a first gate electrode and a second gate electrode each of the first and second gate electrodes being provided adjacent to the photo gate electrode on the surface; and an electric field concentrated area positioned immediately under the photo gate electrode, the first gate electrode and the second gate electrode;
A process for making an epoxidized fatty acid ester from an epoxidized natural fat or oil, comprising: determining the moisture content of one or more epoxidized natural fats or oils; selecting a low moisture epoxidized natural fat or oil for use wherein the low moisture content of the epoxidized natural fat or oil is less than 0.5% by weight; and transesterifying the selected low moisture natural fat or oil with an alcohol containing 2500 ppm by weight or less of water in the presence of a transesterification catalyst selected from the group consisting of sodium methoxide, sodium ethoxide, potassium methoxide, potassium ethoxide, potassium tert-butoxide or an N-heterocyclic carbene catalyst and under conditions which are effective for carrying out the transesterification reaction allowing the products of the transesterification reaction to phase-separate into a byproduct glycerol-containing phase and epoxidized fatty acid ester-containing phase, and then recovering the epoxidized fatty acid ester-containing phase; wherein a) the epoxidized natural fat or oil is epoxidized soybean oil; wherein b) the alcohol is selected from the group consisting of methyl, ethyl and benzyl primary monohydric aliphatic alcohols; and wherein c) borohydride is included in the transesterification mixture. determining the moisture content of one or more epoxidized natural fats or oils; selecting a low moisture epoxidized natural fat or oil for use wherein the low moisture content of the epoxidized natural fat or oil is less than 0.5% by weight; and transesterifying the selected low moisture natural fat or oil with an alcohol containing 2500 ppm by weight or less of water in the presence of a transesterification catalyst selected from the group consisting of sodium methoxide, sodium ethoxide, potassium methoxide, potassium ethoxide, potassium tert-butoxide or an N-heterocyclic carbene catalyst and under conditions which are effective for carrying out the transesterification reaction allowing the products of the transesterification reaction to phase-separate into a byproduct glycerol-containing phase and epoxidized fatty acid ester-containing phase, and then recovering the epoxidized fatty acid ester-containing phase; wherein a) the epoxidized natural fat or oil is epoxidized soybean oil; wherein b) the alcohol is selected from the group consisting of methyl, ethyl and benzyl primary monohydric aliphatic alcohols; and wherein c) borohydride is included in the transesterification mixture. a) the epoxidized natural fat or oil is epoxidized soybean oil; wherein b) the alcohol is selected from the group consisting of methyl, ethyl and benzyl primary monohydric aliphatic alcohols; and wherein c) borohydride is included in the transesterification mixture.
A screw compressor having a compression apparatus, in particular at least one screw rotor 5(20, 22) which feeds a compressed medium to an oil separation apparatus, the oil separation apparatus having a first volume, a second volume and a separation apparatus which separates the first and the second volume (32, 34) from one another, the separation apparatus having a demistor, characterized in that the demistor is arranged in a first section, namely in an upper section of the separation apparatus, and in that a second section, namely a lower section of the separation apparatus is configured as a separating wall which has one or more oil communication openings.
A curable resin composition comprising the following ingredients to: ingredient: polyisobutylene having one or more alkenyl groups in one molecule ingredient: a compound having one or more hydrosilyl groups in one molecule ingredient: a hydrosilylation catalyst ingredient: a compound having two or more vinyl ether groups. ingredient: polyisobutylene having one or more alkenyl groups in one molecule ingredient: a compound having one or more hydrosilyl groups in one molecule ingredient: a hydrosilylation catalyst ingredient: a compound having two or more vinyl ether groups.
A method of assembling a wheel cover to a wheel, thereby providing a covered wheel, comprising the steps of: - providing a wheel, - providing at least one plastic insert, suitable as at least partial wheel cover, - providing a cover matrix, having a shape corresponding to the negative shape of the covered wheel, - placing the plastic insert onto the cover matrix in a corresponding insert position, - placing the wheel onto the cover matrix in a corresponding wheel position, and characterized in that, the wheel is provided with a plurality of circumferentially spaced openings (22, 23), the at least one plastic insert is provided with a series of threaded connector receptacles, which communicate with the circumferentially spaced openings, when the wheel is placed onto the cover matrix in the corresponding wheel position, and in that the method further comprises the step of: - fastening the plastic insert onto the wheel by screwing bolts into the threaded receptacles with a tightening torque between 1 and 5 Nm. - providing a wheel, - providing at least one plastic insert, suitable as at least partial wheel cover, - providing a cover matrix, having a shape corresponding to the negative shape of the covered wheel, - placing the plastic insert onto the cover matrix in a corresponding insert position, - placing the wheel onto the cover matrix in a corresponding wheel position, and - fastening the plastic insert onto the wheel by screwing bolts into the threaded receptacles with a tightening torque between 1 and 5 Nm.
Process for three-dimensional shaping of a tissue/tissue component, in particular for an artificial heart valve, a left atrial appendage closure device, a pacemaker, a leadless pacemaker or a covered stent, the process comprising at least the following steps: a) providing a tissue/tissue component comprising crosslinkable groups; b) optionally stabilizing and/or drying the tissue/tissue component according to step a); c) providing a rigid/solid molded body; d) optional cutting of the tissue/tissue component to be crosslinked according to step a) or b) by means of a suitable cutting instrument and/or a suitable cutting device; e) placing/arranging the tissue/tissue component treated according to step a), b) or d) onto the molded body according to step c); f) providing a container or receptacle; g) placing/arranging the molded body covered with the tissue/tissue component according to step e) in the container/receptacle according to step f); h) filling the container/receptacle according to step g) with a granulate so that the tissue/tissue component according to step g) is at least partially covered with the granulate; i) filling the container/receptacle according to step h) with a suitable crosslinking agent; j) chemically crosslinking the granulate-covered tissue/tissue component according to step h) for at least 1 minute; k) demolding/removal of the crosslinked tissue/tissue component according to step j); l) optional pure chemical post-crosslinking of the tissue/tissue component according to step k) with a suitable crosslinking agent. a) providing a tissue/tissue component comprising crosslinkable groups; b) optionally stabilizing and/or drying the tissue/tissue component according to step a); c) providing a rigid/solid molded body; d) optional cutting of the tissue/tissue component to be crosslinked according to step a) or b) by means of a suitable cutting instrument and/or a suitable cutting device; e) placing/arranging the tissue/tissue component treated according to step a), b) or d) onto the molded body according to step c); f) providing a container or receptacle; g) placing/arranging the molded body covered with the tissue/tissue component according to step e) in the container/receptacle according to step f); h) filling the container/receptacle according to step g) with a granulate so that the tissue/tissue component according to step g) is at least partially covered with the granulate; i) filling the container/receptacle according to step h) with a suitable crosslinking agent; j) chemically crosslinking the granulate-covered tissue/tissue component according to step h) for at least 1 minute; k) demolding/removal of the crosslinked tissue/tissue component according to step j); l) optional pure chemical post-crosslinking of the tissue/tissue component according to step k) with a suitable crosslinking agent.
A thermoplastic polyether ester elastomer consisting of a hard segment and a soft segment, wherein the hard segment comprises an aromatic dicarboxylic compound and an aliphatic diol component as polymerized units, the soft segment comprises an aromatic dicarboxylic compound and a glycol component as polymerized units, the glycol component comprises an anhydrosugar alcohol-alkylene glycol and the content of anhydrosugar alcohol-alkylene glycol in 100 % by weight of the thermoplastic polyether ester elastomer is 1% by weight to 30% by weight.