mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger for combi boilers comprising at least one body which is in the form of a hollow cylinder consisting of two parts; at least one tube with a spiral structure arranged inside the body; at least one front cover arranged so to cover an opening provided on a flat surface of the body; a burner arranged on the front cover; at least one discharge opening provided on the cylindrical surface of the body to allow a gas exiting the burner to circulate around the tube, travel through the cylindrical surface of the body and exit the body; at least one second chamber which has an inner space and is formed so as to cover the discharge opening; at least one flue opening provided on the second chamber; at least one arc shaped plate which partially covers the discharge opening to prevent the condensed liquid or rainwater entering through the flue opening from reaching the tube; characterized in that said arc shaped plate is placed over the discharge opening so that two symmetrical spaces are formed on opposite sides of the plate and that the gas in the body is allowed to pass into the second chamber in a balanced manner. the form of a hollow cylinder consisting of two parts; at least one tube with a spiral structure arranged inside the body; at least one front cover arranged so to cover an opening provided on a flat surface of the body; a burner arranged on the front cover; at least one discharge opening provided on the cylindrical surface of the body to allow a gas exiting the burner to circulate around the tube, travel through the cylindrical surface of the body and exit the body; at least one second chamber which has an inner space and is formed so as to cover the discharge opening; at least one flue opening provided on the second chamber; at least one arc shaped plate which partially covers the discharge opening to prevent the condensed liquid or rainwater entering through the flue opening from reaching the tube; characterized in that said arc shaped plate is placed over the discharge opening so that two symmetrical spaces are formed on opposite sides of the plate and that the gas in the body is allowed to pass into the second chamber in a balanced manner.
A screw extruder including a screw shaft rotationally mounted in oppositely located frames, which screw shaft has a substantially conically widening diameter between a feed opening for crude liquid and a discharge opening for dehydrated material, and on which screw shaft at least one screw blade (9, 10) extending with a substantially uniform pitch is disposed, wherein a filter sieve cylindrically surrounding the screw shaft and having a plurality of filter openings is further arranged in said frame (2, 3), wherein a cleaning device for the filter sieve, which includes a plurality of cleaning nozzles, and a funnel-shaped filtrate trough disposed below the filter sieve are additionally arranged on the outer side of the filter sieve wherein the screw shaft is configured to be cylindrical in the region of the feed opening for crude liquid, to conically widen towards the discharge opening in a central region of the screw extruder, and to be cylindrical in the region of the discharge opening, and whereby the filtrate trough disposed below the filter sieve is designed to comprise at least two chambers (14, 15, 27, 28), or two mutually separate regions, which two chambers (14, 15, 27, 28) are each provided with an outlet (29, 33) for filtrate, characterized in that the first chamber (15, 27) in the region of the feed opening has a longitudinal extension at least corresponding to the length of the cylindrically configured region of the screw shaft in the region of the feed opening for crude liquid and that the outlet of the first chamber (15, 27) in the region of the feed opening is connected to the cleaning device for the filter sieve via a return line for filtrate.
An internal combustion engine, comprising: a cylinder body; a cylinder head connected with the cylinder body; a cylinder head cover connected with the cylinder head; and a valvetrain provided in the cylinder head and the cylinder head cover, wherein the internal combustion engine further includes a nozzle provided in the cylinder head cover and located so as to allow oil to be supplied to the valvetrain, and wherein the nozzle includes a first nozzle portion extending from a base end of the nozzle toward a tip end of the nozzle, and a second nozzle portion extending from a tip end of the first nozzle portion to the tip end of the nozzle; characterized in that said second nozzle portion has a cutout portion, facing the valvetrain, formed as a result of the second nozzle portion being partially cut out in the circumferential direction. a cylinder body; a cylinder head connected with the cylinder body; a cylinder head cover connected with the cylinder head; and a valvetrain provided in the cylinder head and the cylinder head cover, wherein the internal combustion engine further includes a nozzle provided in the cylinder head cover and located so as to allow oil to be supplied to the valvetrain, and wherein the nozzle includes a first nozzle portion extending from a base end of the nozzle toward a tip end of the nozzle, and a second nozzle portion extending from a tip end of the first nozzle portion to the tip end of the nozzle; characterized in that said second nozzle portion has a cutout portion, facing the valvetrain, formed as a result of the second nozzle portion being partially cut out in the circumferential direction.
A zoom lens, comprising: a first lens unit exhibiting a positive refractive power and always being statically positioned along an optical axis when a power of the zoom lens is varied or focussing is carried out, and including a reflective optical element for bending an optical path; a second lens unit exhibiting a negative refractive power, and including a negative lens, a negative lens and a positive lens, along the optical axis in this order from an object side; a third lens unit exhibiting a positive refractive power; a fourth lens unit exhibiting a positive refractive power, and including at least two positive lenses (L9,L11); and a fifth lens unit exhibiting a negative refractive power; wherein the first through fifth lens units (G1-G5) are arranged along the optical axis in this order from an object side to an image side in the zoom lens, and the second lens unit, the fourth lens unit and the fifth lens unit are moved for varying the power of the zoom lens. a first lens unit exhibiting a positive refractive power and always being statically positioned along an optical axis when a power of the zoom lens is varied or focussing is carried out, and including a reflective optical element for bending an optical path; a second lens unit exhibiting a negative refractive power, and including a negative lens, a negative lens and a positive lens, along the optical axis in this order from an object side; a third lens unit exhibiting a positive refractive power; a fourth lens unit exhibiting a positive refractive power, and including at least two positive lenses (L9,L11); and a fifth lens unit exhibiting a negative refractive power; wherein the first through fifth lens units (G1-G5) are arranged along the optical axis in this order from an object side to an image side in the zoom lens, and the second lens unit, the fourth lens unit and the fifth lens unit are moved for varying the power of the zoom lens.
A control circuit, comprising: a double data rate, DDR, conversion circuit, configured to: receive a single data rate, SDR, output stream; and generate a DDR output stream based on the SDR output stream; and an output enable circuit, configured to: receive a standard clock signal; receive a feedback clock signal, wherein the feedback clock signal is based on the standard clock signal; generate a delayed feedback clock signal based on timing constraints associated with each transition of the standard clock signal; receive the DDR output stream generated by the DDR conversion circuit; and generate an output enable signal based on the standard clock signal, the delayed feedback clock signal, and the DDR output stream, wherein the output enable signal is asserted and de-asserted according to the timing constraints. a double data rate, DDR, conversion circuit, configured to: receive a single data rate, SDR, output stream; and generate a DDR output stream based on the SDR output stream; and receive a single data rate, SDR, output stream; and generate a DDR output stream based on the SDR output stream; and an output enable circuit, configured to: receive a standard clock signal; receive a feedback clock signal, wherein the feedback clock signal is based on the standard clock signal; generate a delayed feedback clock signal based on timing constraints associated with each transition of the standard clock signal; receive the DDR output stream generated by the DDR conversion circuit; and generate an output enable signal based on the standard clock signal, the delayed feedback clock signal, and the DDR output stream, wherein the output enable signal is asserted and de-asserted according to the timing constraints. receive a standard clock signal; receive a feedback clock signal, wherein the feedback clock signal is based on the standard clock signal; generate a delayed feedback clock signal based on timing constraints associated with each transition of the standard clock signal; receive the DDR output stream generated by the DDR conversion circuit; and generate an output enable signal based on the standard clock signal, the delayed feedback clock signal, and the DDR output stream, wherein the output enable signal is asserted and de-asserted according to the timing constraints.
A method for provisioning a client device comprising: receiving a message at an inbox of the client device, the message including a location for downloading an application and client device specific configuration information for the application; automatically transferring the application from the location specified in the message to the client device in response to selection of the message; and automatically launching the application upon receipt at the client device, the launching of the application comprising searching the inbox of the client device for the message, parsing the text of the message to obtain the client device specific configuration information and self-configuring the client device using the client device specific configuration information. receiving a message at an inbox of the client device, the message including a location for downloading an application and client device specific configuration information for the application; automatically transferring the application from the location specified in the message to the client device in response to selection of the message; and automatically launching the application upon receipt at the client device, the launching of the application comprising searching the inbox of the client device for the message, parsing the text of the message to obtain the client device specific configuration information and self-configuring the client device using the client device specific configuration information.
A method of concentrating particles in a liquid-particle dispersion feed by adsorptive bubble separation, the method comprising: - intimately contacting a gas with a pressurized stream of liquid comprising a first portion of a liquid-particle dispersion feed in a chamber to form an aerated dispersion that retains at least some kinetic energy from the pressurized stream, wherein the gas does not contain reagents that assist in froth generation; - removing at least some of the kinetic energy from the aerated dispersion to form a dense foam; - introducing a second portion of the liquid-particle dispersion feed into the dense foam under a lower pressure than that of the pressurized stream of liquid to form a gas-liquid-particle dispersion; and - introducing the gas-liquid-particle dispersion into a flotation chamber at a point below a surface of a liquid concentrated therein, where the gas-liquid-particle dispersion forms bubbles comprising a gas-particle agglomerate, and the bubbles rise to the surface of the liquid to form a floating froth enriched in particles, wherein the liquid-particle dispersion feed is an aqueous dispersion of microorganisms. - intimately contacting a gas with a pressurized stream of liquid comprising a first portion of a liquid-particle dispersion feed in a chamber to form an aerated dispersion that retains at least some kinetic energy from the pressurized stream, wherein the gas does not contain reagents that assist in froth generation; - removing at least some of the kinetic energy from the aerated dispersion to form a dense foam; - introducing a second portion of the liquid-particle dispersion feed into the dense foam under a lower pressure than that of the pressurized stream of liquid to form a gas-liquid-particle dispersion; and - introducing the gas-liquid-particle dispersion into a flotation chamber at a point below a surface of a liquid concentrated therein, where the gas-liquid-particle dispersion forms bubbles comprising a gas-particle agglomerate, and the bubbles rise to the surface of the liquid to form a floating froth enriched in particles,
A capturing device with at least one sensor device, an evaluation device, a light source as well as an extensive carrier medium, wherein the extensive carrier medium is formed as a light guide, on which a coupling-in area and an outcoupling area are provided, wherein - the light source is formed to emit light; - the coupling-in area is formed as a holographic element with a first deflecting structure, which is adapted to couple light, which is emitted by the light source and reflected on an object in an environment of the capturing device, into the extensive carrier medium; - the extensive carrier medium is formed to transfer the coupled-in reflected light from the coupling-in area to the outcoupling area by means of internal reflection; - the outcoupling area is formed as a holographic element with a second deflecting structure, which is adapted to couple the transferred reflected light, which is incident on the second deflecting structure, out of the extensive carrier medium; - the at least one sensor device is a time-of-flight camera device, which is formed to capture the light coupled out in the outcoupling area and to provide sensor data correlated with the captured light, which describes a time-of-flight duration of the light emitted by the light source and reflected on the object; and - the evaluation device is formed to provide object data considering the sensor data, which describes a relative position of the object to a predetermined reference point; characterized in that the capturing device includes at least two sensor devices respectively spatially separated from each other, and the evaluation device is adapted to determine coordinates of the object on the capturing device based on the sensor data of the at least two sensor devices and to provide them as object data. - the light source is formed to emit light; - the coupling-in area is formed as a holographic element with a first deflecting structure, which is adapted to couple light, which is emitted by the light source and reflected on an object in an environment of the capturing device, into the extensive carrier medium; - the extensive carrier medium is formed to transfer the coupled-in reflected light from the coupling-in area to the outcoupling area by means of internal reflection; - the outcoupling area is formed as a holographic element with a second deflecting structure, which is adapted to couple the transferred reflected light, which is incident on the second deflecting structure, out of the extensive carrier medium; - the at least one sensor device is a time-of-flight camera device, which is formed to capture the light coupled out in the outcoupling area and to provide sensor data correlated with the captured light, which describes a time-of-flight duration of the light emitted by the light source and reflected on the object; and - the evaluation device is formed to provide object data considering the sensor data, which describes a relative position of the object to a predetermined reference point;
A hose line for a fluid medium - particularly a ventilation hose - in the form of a strip-wound hose with at least one plastic strip, which is helically wound into a hose body, and with at least one reinforcement coil, which is connected to the hose body and reinforces the hose body, wherein the plastic strip is realized in the form of a polymeric plastic foam, wherein the plastic foam has a pore volume of 10 to 75%, particularly 15 to 70%, and wherein the reinforcement coil is realized in the form of a coil of plastic that is coextruded with the plastic strip.
A method of forming a steering yoke body (140, 222) comprising: rolling a metal sheet into a cylinder having adjoining axial edges; affixing the adjoining axial edges of the metal sheet to each other; and attaching a concave arcuate bearing surface to one end of the cylinder, the bearing surface constructed and arranged to receive a steering rack shaft. rolling a metal sheet into a cylinder having adjoining axial edges; affixing the adjoining axial edges of the metal sheet to each other; and attaching a concave arcuate bearing surface to one end of the cylinder, the bearing surface constructed and arranged to receive a steering rack shaft.
A method for the storage of deep-frozen goods in a freezer having a speed-controlled compressor, characterized in that the compressor is operated in long-term operation; and in that the temperature is lowered in a low-temperature mode to a temperature which is clearly below -18°C, and is kept substantially constant at a selected temperature with only low temperature fluctuations which are caused by a change in speed of the compressor, characterized in that the compressor runs on constantly at a low speed in the presence of an output excess, even if a temperature below the selected low temperature is adopted.
A polyion complex in the form of a non-polymeric micelle consisting of a double-stranded ribonucleic acid and a block copolymer represented by the formula or below, which are electrostatically bound together, wherein the polyion complex has an average particle diameter of less than 50 nm as measured by a dynamic light scattering measuring method, and wherein the mixing ratio of the double-stranded ribonucleic acid and block copolymer (N/P) is 1.2 to 1.5 (N represents the total number of cations in the block copolymer; P represents the total number of phosphoester bonds or equivalent bonds in the double-stranded ribonucleic acid): (in the formulas above, each of R 1a and R 1b independently represents a hydrogen atom or an unsubstituted or substituted linear or branched C 1-12 alkyl group, each of L 1 and L 2 represents a linkage group, R 2 represents a hydrogen atom, a protecting group, a hydrophobic group or a polymerizing group, R 3 represents a hydroxyl group, an oxybenzyl group, an -NH-(CH 2) a -X group (X is an amine compound residue comprising one kind or two kinds or more of a primary, secondary or tertiary amine or a quaternary ammonium salt, or a non-amine compound residue; a is an integer of 1 to 5) or an initiator residue, each of R 4a and R 4b independently represents a hydrogen atom, a protecting group for amino group or -C(=NH)NHR 5 (R 5 represents a hydrogen atom or a protecting group for amino group), m represents an integer of 5 to 20000, n represents an integer of 2 to 5000, and x represents an integer of 1 to 5), for use in a method of treating or preventing renal diseases. each of R 1a and R 1b independently represents a hydrogen atom or an unsubstituted or substituted linear or branched C 1-12 alkyl group, each of L 1 and L 2 represents a linkage group, R 2 represents a hydrogen atom, a protecting group, a hydrophobic group or a polymerizing group, R 3 represents a hydroxyl group, an oxybenzyl group, an -NH-(CH 2) a -X group (X is an amine compound residue comprising one kind or two kinds or more of a primary, secondary or tertiary amine or a quaternary ammonium salt, or a non-amine compound residue; a is an integer of 1 to 5) or an initiator residue, each of R 4a and R 4b independently represents a hydrogen atom, a protecting group for amino group or -C(=NH)NHR 5 (R 5 represents a hydrogen atom or a protecting group for amino group), m represents an integer of 5 to 20000, n represents an integer of 2 to 5000, and x represents an integer of 1 to 5), for use in a method of treating or preventing renal diseases.
A thermoacoustic imaging system for use in combination with an existing ultrasound imaging system for imaging features of tissue, the existing ultrasound imaging system including a transmit- receive transducer array comprising a plurality of transmit-receive array elements (106A, 106B, 106C) housed within a first ultrasound probe, wherein the transmit-receive transducer array receives and detects echoes from an ultrasound beam delivered into the tissue by the transmit-receive transducer array, and converts the echoes to ultrasound output signals, the thermoacoustic imaging system comprising: a source of electromagnetic energy; a receive-only transducer array comprising a plurality of receive-only array elements (108A, 108B, 108C) housed within a second ultrasound probe which is in the form of a sleeve that surrounds and is joined mechanically to the first ultrasound probe such that the plurality of receive-only array elements (108A, 108B, 108C) are configured to surround and are in physical alignment and in proximity to the plurality of transmit-receive array elements (106A, 106B, 106C), wherein the receive-only transducer array receives and detects thermoacoustically-generated acoustic signals in response to electromagnetic energy delivered into the tissue by the source of electromagnetic energy, and converts the thermoacoustically-generated acoustic signals to thermoacoustic output signals; and an imaging assembly configured to process the ultrasound output signals and the thermoacoustic output signals to generate composite images of the features of tissue. a source of electromagnetic energy; a receive-only transducer array comprising a plurality of receive-only array elements (108A, 108B, 108C) housed within a second ultrasound probe which is in the form of a sleeve that surrounds and is joined mechanically to the first ultrasound probe such that the plurality of receive-only array elements (108A, 108B, 108C) are configured to surround and are in physical alignment and in proximity to the plurality of transmit-receive array elements (106A, 106B, 106C), wherein the receive-only transducer array receives and detects thermoacoustically-generated acoustic signals in response to electromagnetic energy delivered into the tissue by the source of electromagnetic energy, and converts the thermoacoustically-generated acoustic signals to thermoacoustic output signals; and an imaging assembly configured to process the ultrasound output signals and the thermoacoustic output signals to generate composite images of the features of tissue.