mhurhangee/ep-ind-claims huggingface dataset:
A composite structure comprising a device and at least one polymeric porous coat coating at least a part of said device and encapsulating at least one bioactive agent, said coat encapsulating said at least one bioactive agent while retaining an activity of said bioactive agent and/or while releasing said bioactive agent in a pre-determined release rate, the composite structure being prepared by contacting said device and a water-in-oil emulsion containing an aqueous solution and an organic solution, said organic solution containing at least one second polymer and said emulsion further containing said at least one bioactive agent either within said aqueous solution or within said organic solution, to thereby obtain said device having a layer of said emulsion applied on at least a part thereof, and by freeze-drying said device having said layer applied thereon, with the proviso that said device is not a fiber and further with the proviso that said device is comprised of fibrous elements, said coat is not coating said fibrous elements at the contact point of intercrossing junctions of said fibrous elements in said device, such that said fibrous elements are in contact with each other in each of said junctions.
A mobile wireless communications device comprising: a portable housing; at least one wireless transceiver carried by said portable housing; at least one satellite positioning signal receiver carried by said portable housing; and an antenna assembly carried by said portable housing and comprising: a base conductor having a pair of shorted antenna feed points (37a, 37b) defined therein and coupled to said at least one wireless transceiver and said at least one satellite positioning signal receiver, a first conductor arm extending outwardly from said base conductor, a second conductor arm also extending outwardly from said base conductor and comprising a proximal conductor portion adjacent said base conductor, a distal conductor portion, and an inductor-capacitor circuit coupling said proximal and distal conductor portions; wherein the base conductor is shaped in a meandering pattern. a portable housing; at least one wireless transceiver carried by said portable housing; at least one satellite positioning signal receiver carried by said portable housing; and an antenna assembly carried by said portable housing and comprising: a base conductor having a pair of shorted antenna feed points (37a, 37b) defined therein and coupled to said at least one wireless transceiver and said at least one satellite positioning signal receiver, a first conductor arm extending outwardly from said base conductor, a second conductor arm also extending outwardly from said base conductor and comprising a proximal conductor portion adjacent said base conductor, a distal conductor portion, and an inductor-capacitor circuit coupling said proximal and distal conductor portions; wherein the base conductor is shaped in a meandering pattern. a base conductor having a pair of shorted antenna feed points (37a, 37b) defined therein and coupled to said at least one wireless transceiver and said at least one satellite positioning signal receiver, a first conductor arm extending outwardly from said base conductor, a second conductor arm also extending outwardly from said base conductor and comprising a proximal conductor portion adjacent said base conductor, a distal conductor portion, and an inductor-capacitor circuit coupling said proximal and distal conductor portions; a proximal conductor portion adjacent said base conductor, a distal conductor portion, and an inductor-capacitor circuit coupling said proximal and distal conductor portions;
An organic photoelectronic device, comprising: a first electrode and a second electrode facing each other; and a light-absorption layer between the first electrode and the second electrode, the light-absorption layer including: a photoelectric conversion region including a p-type light-absorbing material and an n-type light-absorbing material, and a doped region including an exciton quencher, the p-type light-absorbing material and the n-type light-absorbing material, wherein at least one of the p-type light-absorbing material and the n-type light-absorbing material selectively absorbs a part of visible light; wherein the photoelectric conversion region includes a first photoelectric conversion region near to the first electrode and a second photoelectric conversion region near to the second electrode, the doped region is between the first photoelectric conversion region and the second photoelectric conversion region; and wherein the exciton quencher includes a metal, a semi-metal, a metal oxide, a semi-metal oxide, an organic material, or a combination thereof. a first electrode and a second electrode facing each other; and a light-absorption layer between the first electrode and the second electrode, the light-absorption layer including: a photoelectric conversion region including a p-type light-absorbing material and an n-type light-absorbing material, and a doped region including an exciton quencher, the p-type light-absorbing material and the n-type light-absorbing material, a photoelectric conversion region including a p-type light-absorbing material and an n-type light-absorbing material, and a doped region including an exciton quencher, the p-type light-absorbing material and the n-type light-absorbing material, wherein at least one of the p-type light-absorbing material and the n-type light-absorbing material selectively absorbs a part of visible light; wherein the photoelectric conversion region includes a first photoelectric conversion region near to the first electrode and a second photoelectric conversion region near to the second electrode, the doped region is between the first photoelectric conversion region and the second photoelectric conversion region; and wherein the exciton quencher includes a metal, a semi-metal, a metal oxide, a semi-metal oxide, an organic material, or a combination thereof.
Control unit for controlling operation of a heat generation installation of an energy system, in particular of a building, the energy system being linked to a heat network, and feeding-in and/or outputting of a thermal power into the heat network being controllable by means of the control unit, a weighting g e,t being associated with the feeding-in, a weighting g d,t being associated with the outputting, and a weighting g i,t being associated with heat generation by the heat generation installation, characterized in that the control unit is designed: - to determine an excess thermal power P excess, t th from the difference between a maximum thermal power P max, t th of the heat generation installation and a thermal power P demand, t th required for the energy system; - to operate the heat generation installation for providing the required thermal power P demand, t th in the time steps for which P demand, t th ⋅ g d, t ≥ P max, t th ⋅ g i, t − P excess, t th ⋅ g e, t; and - to output the excess thermal power P excess, t th generated by the heat generation installation at these points in time into the heat network. - to determine an excess thermal power P excess, t th from the difference between a maximum thermal power P max, t th of the heat generation installation and a thermal power P demand, t th required for the energy system; - to operate the heat generation installation for providing the required thermal power P demand, t th in the time steps for which P demand, t th ⋅ g d, t ≥ P max, t th ⋅ g i, t − P excess, t th ⋅ g e, t; and - to output the excess thermal power P excess, t th generated by the heat generation installation at these points in time into the heat network.
Control facility for operating a drive motor, in particular a BLDC drive motor on the basis of a torque-forming current I q, in order to rotate a rotatably mounted laundry drum of a laundry care appliance according to a laundry care program running during operation, wherein the laundry care program comprises at least a first reversing cycle and a second reversing cycle, which in each case comprise an open-loop control phase and a closed-loop control phase of the rotation of the laundry drum, characterised in that the control facility is embodied to record a maximum value of the torque-forming current I q during the closed-loop control phase of the first reversing cycle, and to set a reference value for the torque-forming current I q, which is based on the recorded maximum value, in the open-loop control phase of the second reversing cycle.
A power generation system comprising: at least one exhaust tube having a curved outer shell configured to contain a flow of exhaust fluid; at least one heat exchanger extending through a first region of the at least one exhaust tube, the at least one heat exchanger in thermal communication with the curved outer shell; a second region of the at least one exhaust tube extending through the at least one exhaust tube, the second region having a low exhaust fluid pressure drop; at least one exhaust valve operatively disposed within the second region and configured to allow exhaust fluid to flow through the second region only when a flow rate of the exhaust fluid becomes great enough to result in back pressure beyond an allowable limit; a plurality of thermoelectric elements surrounding a portion of the outer shell, wherein the plurality of thermoelectric elements comprises a first array of thermoelectric elements at a first end portion of the at least one exhaust tube and a second array of thermoelectric elements at a second end portion of the at least one exhaust tube, wherein during operation, the first end portion is at a higher temperature than is the second end portion, wherein the thermoelectric elements of the first array of thermoelectric elements are longer than the thermoelectric elements of the second array of thermoelectric elements; and a plurality of hot side shunts attached to the outer shell and forming rings that surround the outer shell, in thermal contact with the outer shell, and in thermal contact with the plurality of thermoelectric elements. at least one exhaust tube having a curved outer shell configured to contain a flow of exhaust fluid; at least one heat exchanger extending through a first region of the at least one exhaust tube, the at least one heat exchanger in thermal communication with the curved outer shell; a second region of the at least one exhaust tube extending through the at least one exhaust tube, the second region having a low exhaust fluid pressure drop; at least one exhaust valve operatively disposed within the second region and configured to allow exhaust fluid to flow through the second region only when a flow rate of the exhaust fluid becomes great enough to result in back pressure beyond an allowable limit; a plurality of thermoelectric elements surrounding a portion of the outer shell, wherein the plurality of thermoelectric elements comprises a first array of thermoelectric elements at a first end portion of the at least one exhaust tube and a second array of thermoelectric elements at a second end portion of the at least one exhaust tube, wherein during operation, the first end portion is at a higher temperature than is the second end portion, wherein the thermoelectric elements of the first array of thermoelectric elements are longer than the thermoelectric elements of the second array of thermoelectric elements; and a plurality of hot side shunts attached to the outer shell and forming rings that surround the outer shell, in thermal contact with the outer shell, and in thermal contact with the plurality of thermoelectric elements.
An encrypted communication method, comprising: allocating a same encryption key for a first application and a terminal which is exclusively bound with the first application, wherein the terminal which is exclusively bound with the first application exclusively communicates with the first application and does not communicate with other applications than the first application; transmitting information communicated between the terminal and the first application without performing decryption or re-encryption processing to the information, when determining that the terminal communicates with the first application by using the same encryption key. allocating a same encryption key for a first application and a terminal which is exclusively bound with the first application, wherein the terminal which is exclusively bound with the first application exclusively communicates with the first application and does not communicate with other applications than the first application; transmitting information communicated between the terminal and the first application without performing decryption or re-encryption processing to the information, when determining that the terminal communicates with the first application by using the same encryption key.
Dry mix, characterized in that the dry mix contains, based on the total weight, a. 10 to 93 wt.% of at least one powdered binder, the binder containing a mixture of gelatin and hemoglobin; and b. 7 to 90 wt.% of a first powdered filler, the first powdered filler being a powder made of carbon formed by the carbonization of plant material. a. 10 to 93 wt.% of at least one powdered binder, the binder containing a mixture of gelatin and hemoglobin; and b. 7 to 90 wt.% of a first powdered filler, the first powdered filler being a powder made of carbon formed by the carbonization of plant material.
Apparatus with a frame structure for the examination of an installation such as a rotor blade of a wind power plant for the inspection, cleaning, or maintenance of the same, with a cable pull-in on which the frame structure is suspended so that it can be adjusted in the vertical direction by movement of the cable pull-in, and with one or more propellers or rotor(s) for a movement of the frame structure in the horizontal direction.
Glass mount for a façade construction, having a fastening section which can be fixed to a supporting profile of a façade construction, and having a bearing surface for a filling element, wherein at least one holding part (7, 7') is provided on the glass mount (6, 6'), which holding part can be moved into a position projecting from the bearing surface in order to secure the filling element, wherein the at least one holding part (7, 7') is displaceable or pivotable from a retracted position, in which it is received substantially inside the glass mount (6, 6'), into a position projecting from the bearing surface, and the holding part (7, 7') is insertable into a receptacle of the glass mount, characterized in that the filling element can be placed on the bearing surface.
A method for processing data on Internet of Vehicles, wherein the method comprises: acquiring by a server historical travel data; performing by the server training on the historical travel data to obtain a program script to be used by a terminal to analyze a driving behavior of a user; and sending by the server the program script to the terminal. acquiring by a server historical travel data; performing by the server training on the historical travel data to obtain a program script to be used by a terminal to analyze a driving behavior of a user; and sending by the server the program script to the terminal.
A power receiving device comprising: a power generation unit for generating power from a carrier signal received by a first antenna unit for performing data communication in an electromagnetic induction system, wherein the power generation unit is configured to generate power by switching a frequency resonance characteristic of the first antenna unit in accordance with data communication operation in the electromagnetic induction system, and wherein a quality factor in an antenna resonant circuit (ECb) of the antenna unit is configured to be at a first frequency resonance characteristic when data communication is performed, characterized in that the quality factor is configured to be at a second frequency resonance characteristic when data communication is not performed and power is generated, and wherein the quality factor of the antenna resonant circuit at the second frequency resonance characteristic is reduced compared to the quality factor at the first frequency resonance characteristic, so that the second frequency resonance characteristic is approximately flat for generating higher power. a power generation unit for generating power from a carrier signal received by a first antenna unit for performing data communication in an electromagnetic induction system, wherein the power generation unit is configured to generate power by switching a frequency resonance characteristic of the first antenna unit in accordance with data communication operation in the electromagnetic induction system, and wherein a quality factor in an antenna resonant circuit (ECb) of the antenna unit is configured to be at a first frequency resonance characteristic when data communication is performed, characterized in that the quality factor is configured to be at a second frequency resonance characteristic when data communication is not performed and power is generated, and wherein the quality factor of the antenna resonant circuit at the second frequency resonance characteristic is reduced compared to the quality factor at the first frequency resonance characteristic, so that the second frequency resonance characteristic is approximately flat for generating higher power.
A method for raising and lowering a magnetic levitation vehicle which comprises a plurality of support magnet units (18, 37, 38) which comprise electromagnets arranged one behind the other in longitudinal direction, whereby the vehicle is raised up from a track and brought into a levitated position by switching on electrical currents which activate the support magnet units (18, 37, 38), and is lowered from the levitated position onto the track by switching off the electrical currents thus deactivating the support magnet units (18, 37, 38), characterised in that during the process of raising or lowering the vehicle, groups of support magnet units (18, 37, 38) are activated or deactivated respectively in several time-delayed stages, whereby the activation or deactivation of a subsequent group only occurs once the support magnet units (18, 37, 38) of a preceding group have reached a given clearance.
A reflowable camera module, comprising: a Chip Scale Package carrier; an image sensor mounted to a first portion of the CSP carrier; a light emitting diode mounted to a second portion of the CSP carrier to serve as a camera flash; and an optical barrier within the camera module to prevent stray light generated by the LED in a flash mode from degrading image quality. a Chip Scale Package carrier; an image sensor mounted to a first portion of the CSP carrier; a light emitting diode mounted to a second portion of the CSP carrier to serve as a camera flash; and an optical barrier within the camera module to prevent stray light generated by the LED in a flash mode from degrading image quality.
Process for the preparation of a Chelidonium majus extract, said process comprising the following steps: a. bringing the aerial parts selected from the group consisting of flowers, flower-buds, buds and leaves without nervation of the Chelidonium majus plant into contact with an extraction solvent, selected from the group consisting of propylene glycol, and aqueous solutions of HCl, at a temperature from 20°C to 50 °C; b. recovering the extract from step a, wherein the Chelidonium majus extract comprising protopine, stylopine, chelidonine, sanguinarine, chelerythrine, berberine, coptisine, wherein: the ratio between the quantity expressed in weight of stylopine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 5; the ratio between the quantity expressed in weight of berberine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 1; and; the ratio between the quantity expressed in weight of berberine with respect to the quantity expressed in weight of coptisine is greater than or equal to 0.04. a. bringing the aerial parts selected from the group consisting of flowers, flower-buds, buds and leaves without nervation of the Chelidonium majus plant into contact with an extraction solvent, selected from the group consisting of propylene glycol, and aqueous solutions of HCl, at a temperature from 20°C to 50 °C; b. recovering the extract from step a, wherein the Chelidonium majus extract comprising protopine, stylopine, chelidonine, sanguinarine, chelerythrine, berberine, coptisine, wherein: the ratio between the quantity expressed in weight of stylopine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 5; the ratio between the quantity expressed in weight of berberine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 1; and; the ratio between the quantity expressed in weight of berberine with respect to the quantity expressed in weight of coptisine is greater than or equal to 0.04. the ratio between the quantity expressed in weight of stylopine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 5; the ratio between the quantity expressed in weight of berberine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 1; and; the ratio between the quantity expressed in weight of berberine with respect to the quantity expressed in weight of coptisine is greater than or equal to 0.04.