mhurhangee/patent-ind-claim-en huggingface dataset:
A nozzle ink cartridge , including an ink cartridge main body and a first circuit substrate disposed on the ink cartridge main body ; and an accommodation portion and an ink container that is replaceable, wherein the ink container is contained in the accommodation portion, characterized in that : the first circuit substrate is configured with a nozzle circuit and a first interface circuit that are electrically connected to each other; the nozzle ink cartridge further comprises a second circuit substrate disposed on the ink cartridge main body , wherein the second circuit substrate includes a second interface circuit and a third interface circuit ; and the second interface circuit and the first interface circuit are disposed on a same side of the ink cartridge main body and are electrically connected to each other; and the ink container includes a first storage circuit and a fourth interface circuit that are electrically connected to each other, the fourth interface circuit is electrically connected to the third interface circuit , and the first storage circuit at least stores ink amount information of the ink container ; wherein: the second circuit substrate further includes a switching circuit , and the switching circuit is configured to process signal transmission between the second interface circuit and the third interface circuit . the first circuit substrate is configured with a nozzle circuit and a first interface circuit that are electrically connected to each other; the nozzle ink cartridge further comprises a second circuit substrate disposed on the ink cartridge main body , wherein the second circuit substrate includes a second interface circuit and a third interface circuit ; and the second interface circuit and the first interface circuit are disposed on a same side of the ink cartridge main body and are electrically connected to each other; and the ink container includes a first storage circuit and a fourth interface circuit that are electrically connected to each other, the fourth interface circuit is electrically connected to the third interface circuit , and the first storage circuit at least stores ink amount information of the ink container ; wherein: the second circuit substrate further includes a switching circuit , and the switching circuit is configured to process signal transmission between the second interface circuit and the third interface circuit .
A pneumatic deicer comprising: a base layer having an opening , a first side , and a second side; a forming layer connected to the base layer along at least two seams, the forming layer having an inner side and an outer side with the outer side being distant from the base layer ; a first chamber formed between the base layer and the forming layer and configured to be inflated by air passing into the first chamber through the opening in the base layer ; and a first sensor ; characterised in that the first sensor is situated within the first chamber ; wherein the first sensor is a wireless sensor, and wherein the first sensor is embedded in the first side of the base layer ; further characterised in that the first sensor is sized to have a ratio of a thickness of the first sensor to a thickness of the base layer of 0.1. a base layer having an opening , a first side , and a second side; a forming layer connected to the base layer along at least two seams, the forming layer having an inner side and an outer side with the outer side being distant from the base layer ; a first chamber formed between the base layer and the forming layer and configured to be inflated by air passing into the first chamber through the opening in the base layer ; and a first sensor ; characterised in that the first sensor is situated within the first chamber ; wherein the first sensor is a wireless sensor, and wherein the first sensor is embedded in the first side of the base layer ; further characterised in that the first sensor is sized to have a ratio of a thickness of the first sensor to a thickness of the base layer of 0.1.
A method of forming a three-dimensional object, comprising: providing a carrier and an optically transparent member having a build surface , said carrier and said build surface defining a build region therebetween; filling said build region with a polymerizable liquid ; continuously or intermittently irradiating said build region with light through said optically transparent member to form a solid polymer from said polymerizable liquid ; applying a reduced pressure and polymerization inhibitor-enriched gas to the polymerizable liquid through the optically transparent member to thereby reduce a gas content of the polymerizable liquid ; and continuously or intermittently advancing (e.g., sequentially or concurrently with said irradiating step) said carrier away from said build surface to form said three-dimensional object from said solid polymer ; wherein applying a reduced pressure and polymerization inhibitor-enriched gas to the polymerizable liquid through the optically transparent member to thereby reduce a gas content of the polymerizable liquid comprises supplying a polymerization inhibitor gas to the polymerizable liquid through the optically transparent member; and wherein supplying a polymerization inhibitor gas to the polymerization liquid comprises supplying the polymerization inhibitor gas at a substantially constant pressure. providing a carrier and an optically transparent member having a build surface , said carrier and said build surface defining a build region therebetween; filling said build region with a polymerizable liquid ; continuously or intermittently irradiating said build region with light through said optically transparent member to form a solid polymer from said polymerizable liquid ; applying a reduced pressure and polymerization inhibitor-enriched gas to the polymerizable liquid through the optically transparent member to thereby reduce a gas content of the polymerizable liquid ; and continuously or intermittently advancing (e.g., sequentially or concurrently with said irradiating step) said carrier away from said build surface to form said three-dimensional object from said solid polymer ; wherein applying a reduced pressure and polymerization inhibitor-enriched gas to the polymerizable liquid through the optically transparent member to thereby reduce a gas content of the polymerizable liquid comprises supplying a polymerization inhibitor gas to the polymerizable liquid through the optically transparent member; and wherein supplying a polymerization inhibitor gas to the polymerization liquid comprises supplying the polymerization inhibitor gas at a substantially constant pressure.
A MEMS device, wherein a sensor system (MC) is resiliently mounted on a carrier (C) by means of spring elements (SE) the spring elements are metallic and comprise an elongated structure that is linear, bent or angled a first end of the extended structure is coupled to a first anchor point on the carrier a second end of the extended structure is coupled to a second anchor point on the sensor system characterized in that a damping structure (DS) formed as a layer is arranged between sensor system and carrier on a surface chosen from a first surface (S1) located on the carrier and a second surface (S2) located on the sensor system an air gap (AG) is provided between the damping structure and one of the second and the first surface the height of the air gap normal to the surface is smaller than the distance normal to the surface between first and second anchor point and controlled by the thickness of the damping layer. a sensor system (MC) is resiliently mounted on a carrier (C) by means of spring elements (SE) the spring elements are metallic and comprise an elongated structure that is linear, bent or angled a first end of the extended structure is coupled to a first anchor point on the carrier a second end of the extended structure is coupled to a second anchor point on the sensor system characterized in that a damping structure (DS) formed as a layer is arranged between sensor system and carrier on a surface chosen from a first surface (S1) located on the carrier and a second surface (S2) located on the sensor system an air gap (AG) is provided between the damping structure and one of the second and the first surface the height of the air gap normal to the surface is smaller than the distance normal to the surface between first and second anchor point and controlled by the thickness of the damping layer.
Electrical circuit for converting electrical energy between a three-phase electricity network and a single-phase electricity network , with: a multiplicity of first transformers , each first transformer comprising three primary-side windings and a multiplicity of secondary-side windings, each primary-side winding being connectable to a respective phase of the three-phase power system, a multiplicity of first partial converters , each first partial converter being connected to a corresponding secondary-side winding, and wherein the first partial converters each have three phase modules , a multiplicity of DC intermediate circuits , each DC intermediate circuit being connected to a corresponding first partial converter , and a multiplicity of second partial converters , each second partial converter being connected to a corresponding DC intermediate circuit , wherein the second partial converters of each first transformer are connected in series with one another at their alternating current side outputs via several series circuits ; - said electric circuit further comprising a second transformer and switches , each of said series circuits being connected to a respective secondary-side winding of said second transformer , and a single winding being present on the primary side of said second transformer , said single winding being connectable to said single-phase power system via said switches . a multiplicity of first transformers , each first transformer comprising three primary-side windings and a multiplicity of secondary-side windings, each primary-side winding being connectable to a respective phase of the three-phase power system, a multiplicity of first partial converters , each first partial converter being connected to a corresponding secondary-side winding, and wherein the first partial converters each have three phase modules , a multiplicity of DC intermediate circuits , each DC intermediate circuit being connected to a corresponding first partial converter , and a multiplicity of second partial converters , each second partial converter being connected to a corresponding DC intermediate circuit , wherein the second partial converters of each first transformer are connected in series with one another at their alternating current side outputs via several series circuits ; - said electric circuit further comprising a second transformer and switches , each of said series circuits being connected to a respective secondary-side winding of said second transformer , and a single winding being present on the primary side of said second transformer , said single winding being connectable to said single-phase power system via said switches . - said electric circuit further comprising a second transformer and switches , each of said series circuits being connected to a respective secondary-side winding of said second transformer , and a single winding being present on the primary side of said second transformer , said single winding being connectable to said single-phase power system via said switches .
A method for human identification that avoids allelic dropout comprising: a. hybridizing a first primer to a locus comprising a first primer binding site in a target nucleic acid sequence from a human nucleic acid sample to be analyzed; b. hybridizing a second primer and a third primer to a second primer binding site in said locus wherein said second primer hybridizes to a single nucleotide polymorphism (SNP) nucleobase in said second primer binding site, wherein the 3' terminus of the second primer comprises the predominant allele and the third primer comprises the variant allele at the 3' terminus, wherein the locus is vWA; and c. amplifying the target nucleic acid sequence with said primers, wherein the amplifying yields at least a first amplified sequence comprising at least one SNP as described in SEQ ID NO:3 and Table 1. a. hybridizing a first primer to a locus comprising a first primer binding site in a target nucleic acid sequence from a human nucleic acid sample to be analyzed; b. hybridizing a second primer and a third primer to a second primer binding site in said locus wherein said second primer hybridizes to a single nucleotide polymorphism (SNP) nucleobase in said second primer binding site, wherein the 3' terminus of the second primer comprises the predominant allele and the third primer comprises the variant allele at the 3' terminus, wherein the locus is vWA; and c. amplifying the target nucleic acid sequence with said primers, wherein the amplifying yields at least a first amplified sequence comprising at least one SNP as described in SEQ ID NO:3 and Table 1.
A method for treatment of fish to kill parasitic, noxious aquatic organisms having gas pockets therein, on the fish, comprising the steps of: 1) providing at least one fish herding pipe section with ultrasound transducers on a periphery thereof and in a number sufficient to provide ultrasound treatment of the fish being herded therethrough at a normal herding rate of the fish and at an ultrasonic frequency at or above 20,000 Hz and below a frequency harmful to the fish to kill the parasitic, noxious aquatic organisms thereon; and 2) herding fish therethrough, with the application of ultrasound from the ultrasonic transducers at the ultrasonic frequency and at the normal herding rate to enable each fish to be exposed to the ultrasound, for the acoustic cavitation of the gas pockets within the parasitic, noxious aquatic organisms thereon, thereby killing them; wherein the fish herding pipe section comprises peripherally positioned ultrasonic transducer pipes with each containing an ultrasonic transducer ; the ultrasonic transducers being directed toward an interior of the fish herding pipe section through which the fish are herded. 1) providing at least one fish herding pipe section with ultrasound transducers on a periphery thereof and in a number sufficient to provide ultrasound treatment of the fish being herded therethrough at a normal herding rate of the fish and at an ultrasonic frequency at or above 20,000 Hz and below a frequency harmful to the fish to kill the parasitic, noxious aquatic organisms thereon; and 2) herding fish therethrough, with the application of ultrasound from the ultrasonic transducers at the ultrasonic frequency and at the normal herding rate to enable each fish to be exposed to the ultrasound, for the acoustic cavitation of the gas pockets within the parasitic, noxious aquatic organisms thereon, thereby killing them;
A droplet generation system, comprising: a first nozzle configuration structured to receive a liquid and a gas under pressure in a controllable feed ratio, and to merge the liquid and gas to form an intermediate stream that is a mixture of the gas and of a dispersed phase of the liquid to thereby precondition the liquid and gas that form the intermediate stream into the dispersed phase to facilitate the generation of the droplet stream at a second nozzle configuration; and the second nozzle configuration being connected to receive the intermediate stream from the first nozzle configuration and having a cyclically operable valve mechanism with one or more controllable operating parameters to generate and emit a stream of droplets of said liquid, wherein said one or more controllable operating parameters includes one or more of a duty cycle, a frequency, or a pulse width, wherein the mean size of the droplets is dependent on said controllable feed ratio of the liquid and gas and on one or more of the duty cycle, frequency, or the pulse width of the cyclically operable valve, and wherein the flow rate of the stream of droplets is dependent on the controllable operating parameter(s) of the cyclically operable valve mechanism. a first nozzle configuration structured to receive a liquid and a gas under pressure in a controllable feed ratio, and to merge the liquid and gas to form an intermediate stream that is a mixture of the gas and of a dispersed phase of the liquid to thereby precondition the liquid and gas that form the intermediate stream into the dispersed phase to facilitate the generation of the droplet stream at a second nozzle configuration; and the second nozzle configuration being connected to receive the intermediate stream from the first nozzle configuration and having a cyclically operable valve mechanism with one or more controllable operating parameters to generate and emit a stream of droplets of said liquid, wherein said one or more controllable operating parameters includes one or more of a duty cycle, a frequency, or a pulse width, wherein the mean size of the droplets is dependent on said controllable feed ratio of the liquid and gas and on one or more of the duty cycle, frequency, or the pulse width of the cyclically operable valve, and wherein the flow rate of the stream of droplets is dependent on the controllable operating parameter(s) of the cyclically operable valve mechanism.
A machine tool with a substantially disc-shaped machining tool , for example a saw or grinding machine, wherein the disc-shaped machining tool can be driven by a drive unit of the machine tool and rotates in the driven state about an axis of rotation , comprising a cover for the machining tool , and a dust collecting device which is connected to the cover and is provided for collecting and discharging dust and chip particles which arise during machining with the machining tool , the dust collecting device having an inlet , at least one outlet and a cyclone unit for separating the dust and chip particles, characterized in that at least one chip guiding element is provided on the cover in the region of the machining tool , which chip guiding element is able to rest at least in sections on both end faces of the machining tool and to effect a diversion of the dust and chip particles emitted by the machining tool in the direction of the inlet of the dust collecting device .
Circuitry for a terminal device configured to obtain a virtual measurement result for a first channel in a wireless telecommunications system , the system comprising a base station providing one or more active channels for communicating wireless signals with the terminal, wherein the first channel is either an active channel for which the base station is currently not activated for the one or more terminals or an inactive channel; wherein the circuitry comprises a controller element and a transceiver element configured to operate together to: receive from the base station measurement configuration information identifying the first channel; select an active channel of the one or more active channels, the active channel being different from the first channel; obtain a first measurement result, wherein the first measurement result is based on signals transmitted by the base station on the active channel; derive a virtual measurement result for the first channel from the first measurement result, thereby obtaining a virtual measurement result for the first channel. receive from the base station measurement configuration information identifying the first channel; select an active channel of the one or more active channels, the active channel being different from the first channel; obtain a first measurement result, wherein the first measurement result is based on signals transmitted by the base station on the active channel; derive a virtual measurement result for the first channel from the first measurement result, thereby obtaining a virtual measurement result for the first channel.
Composition for treating a concrete surface, characterized in that the composition contains the following ingredients: - at least 35.0 % by weight of water; - 20.0-35.0 % by weight of an emulsion containing one or more fatty acid alkyl ester(s); - 20.0-35.0 % by weight of a wax dispersion; - 0.5-1.5 % by weight of polyether-modified siloxane; - 0.1-0.3 % by weight of defoamer; - 0.05-0.3 % by weight of thickener; - 0.05-0.3 % by weight of preservative; - < 10 % by weight of a sugar and/or an organic acid and/or a derivative of an organic acid. - at least 35.0 % by weight of water; - 20.0-35.0 % by weight of an emulsion containing one or more fatty acid alkyl ester(s); - 20.0-35.0 % by weight of a wax dispersion; - 0.5-1.5 % by weight of polyether-modified siloxane; - 0.1-0.3 % by weight of defoamer; - 0.05-0.3 % by weight of thickener; - 0.05-0.3 % by weight of preservative; - < 10 % by weight of a sugar and/or an organic acid and/or a derivative of an organic acid.
Ironing device comprising a steam iron , a steam generator and a steam conveying pipe connecting the steam generator to the steam iron and intended to supply the steam iron with steam, the steam iron comprising a body in thermal contact with an ironing surface , a steam distribution circuit arranged in said body and a cover portion added to the body at least partially delimiting the steam distribution circuit , the steam distribution circuit comprising a steam flow inlet (16.1) opening into a steam inlet chamber and at least one steam outlet hole arranged on the ironing surface , the steam flow inlet being made through an opening (12.1) arranged in the cover part , characterised in that said inlet chamber comprises a partition wall dividing the inlet chamber into a lower stage (34.1) arranged below the partition wall and a upper stage (34.2) arranged above the partition wall , the steam from the steam flow inlet (16.1) circulating successively in the lower stage (34.1) and then in the upper stage (34.2).
An agricultural harvesting head comprising a frame that extends laterally and is elongate; a left side conveyor that is supported on a left side of the frame and is configured to carry cut crop material laterally from a left side of the frame to a central region of the frame ; a right side conveyor that is supported on a right side of the frame and is configured to carry cut crop material laterally from a right side of the frame to the central region of the frame ; a center conveyor that is disposed to receive cut crop material from the left side conveyor and from the right side conveyor and to convey the cut crop material rearwardly, wherein the center conveyor is supported on the central region of the frame ; and an upper conveyor disposed to receive, engage and downwardly compress an upper surface of the cut crop material conveyed rearwardly by the center conveyor , characterized in that the upper conveyor is of an endless belt type and disposed above the center conveyor .