mhurhangee/ep-ind-claims huggingface dataset:
Backflush filter for liquid media, especially for liquid fuels, having a filter housing that has a filter inlet, a filter outlet and a flushing connection, having a filter insert (50; 350), being fixedly arranged in the filter housing, flowable through by the medium to be filtered from the inside to the outside and formed by means of at least one cylindrical supporting cage, which has at least two groups of slot-type apertures, and at least one filtering means supported on the supporting cage, wherein the apertures within each group (53A, 53B) extend in parallel alignment with one another and are separated from one another by mutually parallel ribs of the supporting cage, and having a backflushing device, which is arranged in the interior of the filter insert, is rotatable in the filter insert about an axis by means of an actuating drive, has at least one slit and extends over the height of the filter insert, said backflushing device serving for zone-wise flushing of the filtering means (51; 351) via the slit and apertures (53; 353) and for carrying filter residues to the flushing connection during a backflush cycle, wherein the slot-type apertures of one group are arranged circumferentially offset relative to those of the other group(s), and the apertures of one group lie in axial extension of the ribs (54; 354) of the other group(s), characterized in that the backflushing device has at least two mutually separate flushing chambers (64A, 64B), arranged vertically offset relative to one another and having associated slits, and a hollow shaft, which is capable of limited rotary motion relative to the flushing chambers and has a first radial outlet in the region of the first flushing chamber and a second radial outlet in the region of the second flushing chamber, which second radial outlet is arranged on the hollow shaft in a manner vertically offset and circumferentially offset relative to the first radial outlet, wherein the direction of rotation of the backflushing device is reversable by means of the actuating drive during the backflush cycle, and driving means for simultaneous movement of the flushing chambers and the hollow shaft in the respective direction of rotation after a reversal of direction and for rotation of the hollow shaft and the flushing chambers relative to one another are provided for both directions of motion, in order to effect zone-wise flushing of the filtering means via the first flushing chamber and a window located in front of its slit in one direction of rotation and to effect zone-wise flushing of the filterings means via the second flushing chamber and a window located in front of its slit in the other direction of rotation.
Method for quantitatively determining a temporal and spatial distribution of light beams in a scattering medium from the radiation pattern of a light source, comprising the steps of: - determining a radiation direction (θ, φ) and a light intensity I(θ, φ) of one of the light beams and defining a radiation vector k with the direction (θ, φ) and the absolute value I(θ, φ), - determining a scattering-dependent light intensity distribution I momentum (α momentum, t) of the radiation vector k in dependence on the time of flight of the light and a fog density in the momentum space, - transforming the scattering-dependent light intensity distribution in the momentum space I momentum (α momentum, t) into a scattering-dependent light intensity distribution in the position space I position (α position, t), - determining an illumination intensity E(θ P, φ P, r P) of an observer point P in the position space from a distance-dependent light intensity I E (θ, φ, r P) and the scattering-dependent light intensity distribution in the position space I position (α position, t). - determining a radiation direction (θ, φ) and a light intensity I(θ, φ) of one of the light beams and defining a radiation vector k with the direction (θ, φ) and the absolute value I(θ, φ), - determining a scattering-dependent light intensity distribution I momentum (α momentum, t) of the radiation vector k in dependence on the time of flight of the light and a fog density in the momentum space, - transforming the scattering-dependent light intensity distribution in the momentum space I momentum (α momentum, t) into a scattering-dependent light intensity distribution in the position space I position (α position, t), - determining an illumination intensity E(θ P, φ P, r P) of an observer point P in the position space from a distance-dependent light intensity I E (θ, φ, r P) and the scattering-dependent light intensity distribution in the position space I position (α position, t).
A griddle for cooking food, comprising: a housing having an accommodation space formed therein and an open top; a heating plate seated on the top of the housing and having a first side and a second side opposite to the first side; a burner installed in the accommodation space of the housing and extending from the first side of the heating plate towards the second side of the heating plate, wherein the burner is inclined with respect to the heating plate; and an exhaust vent for discharging an exhaust gas generated by the burner from the housing, wherein the exhaust vent is disposed adjacent to the second side of the heating plate; characterized in that, the griddle comprises a flow channel guide arranged between the heating plate and the burner for shielding the heating plate from the burner, wherein the flow channel guide is inclined with respect to the heating plate and arranged closer to the heating plate at the first side of the heating plate than at the second side of the heating plate. a housing having an accommodation space formed therein and an open top; a heating plate seated on the top of the housing and having a first side and a second side opposite to the first side; a burner installed in the accommodation space of the housing and extending from the first side of the heating plate towards the second side of the heating plate, wherein the burner is inclined with respect to the heating plate; and an exhaust vent for discharging an exhaust gas generated by the burner from the housing, wherein the exhaust vent is disposed adjacent to the second side of the heating plate; characterized in that, the griddle comprises a flow channel guide arranged between the heating plate and the burner for shielding the heating plate from the burner, wherein the flow channel guide is inclined with respect to the heating plate and arranged closer to the heating plate at the first side of the heating plate than at the second side of the heating plate.
A coated tool comprising a base material and a coating layer located on a surface of the base material, wherein a cutting edge and a flank surface are located on the coating layer, the coating layer comprises a portion in which at least a titanium carbonitride layer and an aluminum oxide layer having an α-type crystal structure are laminated in this order, and a texture coefficient Tc1 detected in measurement from a surface side of the aluminum oxide layer in the flank surface is in the range of 1.0 to 5.0, wherein the texture coefficient Tc (hkl) is a value expressed by the formula shown below on the basis of a peak of the aluminum oxide layer analyzed by an X-ray diffraction analysis: a texture coefficient Tc hkl = I hkl / I 0 hkl / 1 / 8 × Σ I HKL / I 0 HKL wherein represents a crystal face,,,,,, or; each of I and I (hkl) represents a peak intensity of a peak which is attributed to each crystal face and is detected by an X-ray diffraction analysis of the aluminum oxide layer, using a CuKα line; and each of I 0 and I 0 (hkl) represents a reference diffraction intensity of each crystal face contained in a JCPDS card No. 00-010-0173. wherein represents a crystal face,,,,,, or; each of I and I (hkl) represents a peak intensity of a peak which is attributed to each crystal face and is detected by an X-ray diffraction analysis of the aluminum oxide layer, using a CuKα line; and each of I 0 and I 0 (hkl) represents a reference diffraction intensity of each crystal face contained in a JCPDS card No. 00-010-0173.
An ear-worn electronic device adapted to be worn at, by, in or on an ear of a wearer, the device comprising: a housing configured to be supported at, by, in or on the wearer's ear; a processor disposed in the housing; a speaker or a receiver coupled to the processor; a radio frequency transceiver disposed in the housing and coupled to the processor; and an antenna arrangement (220a, 220b, 300) disposed in or on the housing and coupled to the transceiver, characterised in that: the antenna arrangement (220a, 220b) comprises a primary antenna (221a, 221b, 301) and a chip antenna (223a, 223b, 350) connected to the primary antenna (221a, 221b, 301), wherein the primary antenna (221a, 221b, 301) is configured to serve as a counterpoise for the chip antenna (223a, 223b, 350) and to feed the chip antenna (223a, 223b, 350). a housing configured to be supported at, by, in or on the wearer's ear; a processor disposed in the housing; a speaker or a receiver coupled to the processor; a radio frequency transceiver disposed in the housing and coupled to the processor; and an antenna arrangement (220a, 220b, 300) disposed in or on the housing and coupled to the transceiver, characterised in that: the antenna arrangement (220a, 220b) comprises a primary antenna (221a, 221b, 301) and a chip antenna (223a, 223b, 350) connected to the primary antenna (221a, 221b, 301), wherein the primary antenna (221a, 221b, 301) is configured to serve as a counterpoise for the chip antenna (223a, 223b, 350) and to feed the chip antenna (223a, 223b, 350).
A tracker for a surgical navigation system, the tracker comprising a first switch configured to be operated between a first switch configuration and a second switch configuration; one or more sources of electromagnetic radiation configured to selectively emit electromagnetic radiation with a first radiation characteristic or a second radiation characteristic; and electrical circuitry configured to selectively control the one or more sources of electromagnetic radiation to emit electromagnetic radiation having the first radiation characteristic in the first switch configuration and to emit electromagnetic radiation having the second radiation characteristic in the second switch configuration, wherein the second radiation characteristic is different from the first radiation characteristic; and characterised in that the first switch is pre-configured to assume the first switch configuration and adapted to switch from the first to the second switch configuration only for the duration that the first switch is operated or for a fixed time duration after the first switch was operated. a first switch configured to be operated between a first switch configuration and a second switch configuration; one or more sources of electromagnetic radiation configured to selectively emit electromagnetic radiation with a first radiation characteristic or a second radiation characteristic; and electrical circuitry configured to selectively control the one or more sources of electromagnetic radiation to emit electromagnetic radiation having the first radiation characteristic in the first switch configuration and to emit electromagnetic radiation having the second radiation characteristic in the second switch configuration, wherein the second radiation characteristic is different from the first radiation characteristic; and characterised in that the first switch is pre-configured to assume the first switch configuration and adapted to switch from the first to the second switch configuration only for the duration that the first switch is operated or for a fixed time duration after the first switch was operated.
Portable power tool electronic module having an electronic module housing, having at least one printed circuit board, wherein the at least one printed circuit board is decoupled with reference to a movement and/or a temperature and/or a flow of power relative to at least one housing component of the electronic module housing, having at least one cooling apparatus which forms at least one housing component, having at least one spacer formed from metal which spaces the at least one printed circuit board from the at least one cooling apparatus, and having at least one semiconductor having at least one semiconductor housing, which has at least one fastening element, with the at least one fastening element positioning at least the at least one semiconductor, the semiconductor being arranged directly on the cooling apparatus, wherein the at least one spacer forms a thermal coupling between at least the at least one semiconductor and the at least one printed circuit board, wherein the at least one printed circuit board has a measuring apparatus for indirectly determining or measuring a temperature of the semiconductor by means of the thermal coupling between at least the at least one semiconductor and the at least one printed circuit board.
An annular ring for holding a system of a rotating bezel, intended to cooperate with a cylindrical outer surface of a middle of a watch case to allow the rotation of the rotating bezel on the middle, the annular ring comprising means for guiding in rotation the rotating bezel around the middle, the annular ring further comprising means which are configured to brake the rotation of the rotating bezel around the middle and to dampen the sound, characterised in that said annular ring comprises, on one periphery, an alternation between tabs of a first group of tabs and tabs of a second group of tabs, the tabs of the first group and the tabs of the second group having dimensions in the radial direction which are differentiated, the tabs (30a, 30b) of one of the first and second groups of tabs forming said rotational guide means, the tabs (30a, 30b) of the other of the first and second groups of tabs forming said braking and sound damping means.
An apparatus comprising a housing with a first end and a second end, and a plurality of juxtaposed flexible tubes, there being a balloon docked at the end of each tube, wherein a first group of flexible tubes have their distal ends more proximate the housing than a second group of flexible tubes, thereby locating a first group of balloons docked at the end of each tube of the first group of flexible tubes more proximate the housing than a second group of balloons docked at the end of each tube of the second group of flexible tubes; wherein the flexible tubes extend from the second end of the housing and facilitate filling the balloons with a fluid, wherein the balloons are disposed in sufficient proximity to one another to push on each other during their filling, thereby causing the tubes to flex, and wherein each balloon has an elastic fastener to serve the multiple functions of (a) holding a balloon to its flexible tube to receive issuing fluid, (b) allowing dedocking of its balloon, and (c) acting as a constrictor to seal fluid content in its balloon as the fluid filled balloon is being dedocked and/or upon dedocking; wherein the fluid is water, and wherein separation of the water filled balloon from its flexible tube can be caused or assisted by the weight or inertia of the water in the balloon. (a) holding a balloon to its flexible tube to receive issuing fluid, (b) allowing dedocking of its balloon, and (c) acting as a constrictor to seal fluid content in its balloon as the fluid filled balloon is being dedocked and/or upon dedocking;
An imaging element comprising: a photoelectric conversion unit formed in a pixel region and configured to convert light into electrical charge; and a transistor formed in the pixel region and configured to transfer electric charge from the photoelectric conversion unit, wherein the photoelectric conversion unit is connected to a well of the pixel region having a negative potential; wherein the imaging element is characterized by further comprising a switch, wherein in a first configuration, the switch connects a gate of the transistor to a power supply potential, and in a second configuration, the switch connects the gate of the transistor to a negative potential other than the negative potential of the pixel region. a photoelectric conversion unit formed in a pixel region and configured to convert light into electrical charge; and a transistor formed in the pixel region and configured to transfer electric charge from the photoelectric conversion unit, wherein the photoelectric conversion unit is connected to a well of the pixel region having a negative potential; wherein the imaging element is characterized by further comprising a switch, wherein in a first configuration, the switch connects a gate of the transistor to a power supply potential, and in a second configuration, the switch connects the gate of the transistor to a negative potential other than the negative potential of the pixel region.
Method for providing heat (Q out) for a district heating supply, comprising the following method steps: - extracting thermal water for providing heat at a first temperature level (T 41, T 42) from a geothermal source, - providing and operating a high-temperature heat pump, - thermally connecting the geothermal source to the high-temperature heat pump, - conducting the thermal water through a heat exchanger for transmitting heat to a heat transporting medium, whereby a heated heat transporting medium is provided, - passing the thermal water cooled in the heat exchanger via a reinjection line back into the geothermal source, - passing the heated heat transporting medium to the evaporator and the condenser of the high-temperature heat pump, - the heat transporting medium being passed to the evaporator and the condenser at the same temperature level (T 42), - thermally transmitting heat (Q in) of the first temperature level (T 41, T 42) from the heated heat transporting medium passed to the evaporator to the evaporator of the high-temperature heat pump and - providing heat (Q out) at a second, higher temperature level (T 43, T 47), which lies at at least 100°C, through the condenser of the high-temperature heat pump to the heated heat transporting medium passed to the condenser. - extracting thermal water for providing heat at a first temperature level (T 41, T 42) from a geothermal source, - providing and operating a high-temperature heat pump, - thermally connecting the geothermal source to the high-temperature heat pump, - conducting the thermal water through a heat exchanger for transmitting heat to a heat transporting medium, whereby a heated heat transporting medium is provided, - passing the thermal water cooled in the heat exchanger via a reinjection line back into the geothermal source, - passing the heated heat transporting medium to the evaporator and the condenser of the high-temperature heat pump, - the heat transporting medium being passed to the evaporator and the condenser at the same temperature level (T 42), - thermally transmitting heat (Q in) of the first temperature level (T 41, T 42) from the heated heat transporting medium passed to the evaporator to the evaporator of the high-temperature heat pump and - providing heat (Q out) at a second, higher temperature level (T 43, T 47), which lies at at least 100°C, through the condenser of the high-temperature heat pump to the heated heat transporting medium passed to the condenser.
Method for manufacturing of a porous electrode material, wherein the porous electrode material comprises transition metal phosphide on a porous structure comprising transition metal, the method comprising: providing elemental phosphorus separated from the porous structure comprising transition metal, evaporating elemental phosphorus by heating, thereby forming a phosphorus vapour, contacting the phosphorus vapour and the porous structure comprising transition metal, and heating, in an inert atmosphere, the contacted elemental phosphorus and the porous structure comprising transition metal to a temperature in the temperature range of 300 to 1100°C, thereby reacting at least a part of the phosphorus and at least a part of the transition metal under formation of transition metal phosphide on the surface of the porous structure, thereby forming the porous electrode material. providing elemental phosphorus separated from the porous structure comprising transition metal, evaporating elemental phosphorus by heating, thereby forming a phosphorus vapour, contacting the phosphorus vapour and the porous structure comprising transition metal, and heating, in an inert atmosphere, the contacted elemental phosphorus and the porous structure comprising transition metal to a temperature in the temperature range of 300 to 1100°C, thereby reacting at least a part of the phosphorus and at least a part of the transition metal under formation of transition metal phosphide on the surface of the porous structure, thereby forming the porous electrode material.
A socket tile for a building cover, provided to be disposed among standard tiles, this socket tile including a drilled tile, in which the cutout of the drilling of the drilled tile includes an edge configured to be disposed vertically when the drilled tile is inclined according to the slope of the roof and in that it includes: - a molded bulb of plastic material, the base of which includes an outline fitting into the drilling of the drilled tile and configured to form a vertical cylinder when the drilled tile is inclined in its mounting position, said bulb including around this outline a continuous rim having an end which approaches the upper surface of this drilled tile, forming a channel below, the bulb including above the continuous rim a conical shape that narrows, then a horizontal crown having a central drilling, - a continuous bead of adhesive received in the channel and adhered to the top of the drilled tile so as to ensure a seal and a mechanical strength on the outline, and - a molded lantern including a generally cylindrical shape and comprising a flare at the base, said lantern fitting onto said crown of the bulb. - a molded bulb of plastic material, the base of which includes an outline fitting into the drilling of the drilled tile and configured to form a vertical cylinder when the drilled tile is inclined in its mounting position, said bulb including around this outline a continuous rim having an end which approaches the upper surface of this drilled tile, forming a channel below, the bulb including above the continuous rim a conical shape that narrows, then a horizontal crown having a central drilling, - a continuous bead of adhesive received in the channel and adhered to the top of the drilled tile so as to ensure a seal and a mechanical strength on the outline, and - a molded lantern including a generally cylindrical shape and comprising a flare at the base, said lantern fitting onto said crown of the bulb.
Multilayer tactile sensor with a first layer comprising a first electrode, a second layer comprising a second electrode and an intermediate layer of pressure-sensitive material that is disposed between the first and the second layer (12, 14) and spaces apart the first electrode from the second electrode, and a fastening means for fixing the first and second electrode (18, 20) in relation to each other, wherein at least the first electrode is made of electrically conductive yarn and extends along a defined longitudinal direction, and characterized in that the fastening means comprises at least a first seam that extends along the longitudinal direction and comprises at least one thread, which is being fed repeatedly multiple times through the pressure-sensitive material in order to fix the first electrode in a defined position.