mhurhangee/ep-ind-claims huggingface dataset:
A hydrocyclone separator for classifying solid material in liquid suspension, comprising a head part having an inlet conduit adapted to feed a suspension into the head part, and having an overflow discharge tube arranged axially into the head part, a conically tapered separation part, an adjustable apex discharge port, and a tail pipe, wherein the adjustable apex discharge port comprises an abrasive-resistant resilient body having a first section with a central tapered conical aperture forming a continuation of an inner wall of the conically tapered separation part, an apex orifice port, and a second section with a central aperture with a first end facing the apex orifice port and a second end facing and in communication with the tail pipe, characterised in that the adjustable apex discharge port further comprises an adjustment sleeve configured to circumferentially enclose the resilient body in an axial extension comprising the apex orifice port, with a first sleeve end circumferentially enclosing the first section, and a second sleeve end circumferentially enclosing the second section, which sleeve has a tapered conical surface configured to abut an outer surface of the resilient body, and which sleeve is arranged for axial displacement to thereby vary the size of the apex orifice port, wherein the second sleeve end is arranged so that the second end of the second section at least is aligned with or extends beyond the second sleeve end and into the tail pipe. an abrasive-resistant resilient body having a first section with a central tapered conical aperture forming a continuation of an inner wall of the conically tapered separation part, an apex orifice port, and a second section with a central aperture with a first end facing the apex orifice port and a second end facing and in communication with the tail pipe, characterised in that the adjustable apex discharge port further comprises an adjustment sleeve configured to circumferentially enclose the resilient body in an axial extension comprising the apex orifice port, with a first sleeve end circumferentially enclosing the first section, and a second sleeve end circumferentially enclosing the second section, which sleeve has a tapered conical surface configured to abut an outer surface of the resilient body, and which sleeve is arranged for axial displacement to thereby vary the size of the apex orifice port, wherein the second sleeve end is arranged so that the second end of the second section at least is aligned with or extends beyond the second sleeve end and into the tail pipe.
A helical antenna comprising: a plurality of conductive helical traces wound about a common longitudinal antenna axis of the antenna for transmitting or receiving a signal at a frequency band; each of the conductive helical traces being connected to a respective port of the antenna via a respective launch line; and at least one conductive component insulated from the conductive helical traces and at least partially superimposed over at least one of the conductive helical traces; wherein the at least one conductive component comprises a plurality of separated conductive patches, wherein each conductive helical trace is at least partially superimposed by a conductive patch, the conductive patches having a pitch of 0° such that the longitudinal axes of the conductive patches are generally parallel to the bottom of the helical antenna, characterized by each patch having a length that is less than a full rotation about the longitudinal antenna axis and each conductive patch being positioned at the same height as measured from the bottom of the helical antenna. a plurality of conductive helical traces wound about a common longitudinal antenna axis of the antenna for transmitting or receiving a signal at a frequency band; each of the conductive helical traces being connected to a respective port of the antenna via a respective launch line; and at least one conductive component insulated from the conductive helical traces and at least partially superimposed over at least one of the conductive helical traces; wherein the at least one conductive component comprises a plurality of separated conductive patches, wherein each conductive helical trace is at least partially superimposed by a conductive patch, the conductive patches having a pitch of 0° such that the longitudinal axes of the conductive patches are generally parallel to the bottom of the helical antenna, characterized by each patch having a length that is less than a full rotation about the longitudinal antenna axis and each conductive patch being positioned at the same height as measured from the bottom of the helical antenna.
A cooking appliance comprising a pivotable pot having a pot pivot axle and a pivotable lid having a lid pivot axle, characterized in that a common drive is provided for pivoting the pot and the lid.
A battery pack configured to supply power to a cleaning device and be received by a battery receptacle of the cleaning device, the battery pack comprising: a housing including an aperture; a user contact moveable between a first position and a second position; a rod that interfaces with the user contact such that when the user contact moves from the first position toward the second position the rod moves from a retracted position, in which the rod is retracted into the housing, to a protruded position, in which a portion of the rod extends through the aperture of the housing,; an engagement member that interfaces with the rod such that when the rod moves from the retracted position toward the protruded position the engagement member moves from a latched position to an unlatched position; and wherein, when the rod is in the protruded position said portion of the rod extends through the aperture of the housing to eject the battery pack from the battery receptacle. a housing including an aperture; a user contact moveable between a first position and a second position; a rod that interfaces with the user contact such that when the user contact moves from the first position toward the second position the rod moves from a retracted position, in which the rod is retracted into the housing, to a protruded position, in which a portion of the rod extends through the aperture of the housing,; an engagement member that interfaces with the rod such that when the rod moves from the retracted position toward the protruded position the engagement member moves from a latched position to an unlatched position; and wherein, when the rod is in the protruded position said portion of the rod extends through the aperture of the housing to eject the battery pack from the battery receptacle.
A flow regulator for an aircraft, comprising: a fluid input port for receiving a pressurised fluid; a fluid output port for providing fluid having a regulated flow rate; a regulator valve connected in fluid communication between the fluid input port and the fluid output port, the regulator valve being operable to provide flow regulated fluid at a substantially constant output flow rate to the fluid output port; and characterised by a bi-stable flow switching mechanism for switching the substantially constant output flow rate of the regulated fluid provided by the regulator valve between a fixed predetermined first flow rate and a fixed predetermined second flow rate, the fixed predetermined first flow rate being less than the fixed predetermined second flow rate. a fluid input port for receiving a pressurised fluid; a fluid output port for providing fluid having a regulated flow rate; a regulator valve connected in fluid communication between the fluid input port and the fluid output port, the regulator valve being operable to provide flow regulated fluid at a substantially constant output flow rate to the fluid output port; and characterised by a bi-stable flow switching mechanism for switching the substantially constant output flow rate of the regulated fluid provided by the regulator valve between a fixed predetermined first flow rate and a fixed predetermined second flow rate, the fixed predetermined first flow rate being less than the fixed predetermined second flow rate.
Kit comprising: - a first composition comprising leaves of Melissa officinalis, or parts thereof; - a second composition comprising Eleutherococcus senticosus, or parts thereof; - a third composition comprising Avena sativa, or parts thereof; - a fourth composition comprising Ballota nigra, or parts thereof; - a fifth composition comprising roots of Glycyrrhiza glabra / gan cao, or parts thereof; and - a sixth composition comprising roots of Uncaria tomentosa, or parts thereof. - a first composition comprising leaves of Melissa officinalis, or parts thereof; - a second composition comprising Eleutherococcus senticosus, or parts thereof; - a third composition comprising Avena sativa, or parts thereof; - a fourth composition comprising Ballota nigra, or parts thereof; - a fifth composition comprising roots of Glycyrrhiza glabra / gan cao, or parts thereof; and - a sixth composition comprising roots of Uncaria tomentosa, or parts thereof.
A saddle support for receiving a seat saddle and for connecting same to the structure of a vehicle, in particular to the frame of a bicycle, comprising at least one shaft, the shaft being formed integrally from at least one tubular section (2, 4) and from a section having at least two shaft portions which are spaced from each other, and an elastomer in the form of an annular component being arranged between the shaft portions, characterised in that at least one technical device is arranged between the shaft portions such that the technical device is enclosed in a tightly-fitting manner by the elastomer in the form of an annular component.
A tubular structure comprising: a base having a first surface and a second surface opposite one another, the first surface defining an elongate cavity, and the base having a tubular shape defining a longitudinal axis extending along the elongate cavity; and a wrap supported on the second surface of the base, the wrap including a plurality of layers (116a,b,c,d), each layer having a first longitudinal edge and a second longitudinal edge welded to one another along a respective spiral seam (118a,b,c,d) associated with the given layer and extending about the longitudinal axis of the base; and wherein each layer of the plurality of layers is welded to the base, to at least one other layer of the plurality of layers, or to a combination thereof. a base having a first surface and a second surface opposite one another, the first surface defining an elongate cavity, and the base having a tubular shape defining a longitudinal axis extending along the elongate cavity; and a wrap supported on the second surface of the base, the wrap including a plurality of layers (116a,b,c,d), each layer having a first longitudinal edge and a second longitudinal edge welded to one another along a respective spiral seam (118a,b,c,d) associated with the given layer and extending about the longitudinal axis of the base; and wherein each layer of the plurality of layers is welded to the base, to at least one other layer of the plurality of layers, or to a combination thereof.
A vehicle diagnostic apparatus, comprising: 1.1.1 a multipurpose interface configured to accept connections corresponding to a plurality of different external devices, the plurality of different external devices including a data source and a power source that is different than the data source, 1.1.2 the multipurpose interface being configured to provide a power signal or a data signal to the diagnostic apparatus; 1.12 a processor configured to process the data signals; and 1.3 a circuit configured to 1.3.1 (i) determine whether the multipurpose interface is connected to the data source or the different power source by distinguishing between the data signals and the electrical power and 1.3.2 (ii) provide to the processor a trigger signal, the trigger signal identifying whether a received electrical signal is the data signals or the electrical power, 1.4 wherein the diagnostic apparatus is configured to perform diagnostic testing on vehicle components and systems. 1.1.1 a multipurpose interface configured to accept connections corresponding to a plurality of different external devices, the plurality of different external devices including a data source and a power source that is different than the data source, 1.1.2 the multipurpose interface being configured to provide a power signal or a data signal to the diagnostic apparatus; 1.12 a processor configured to process the data signals; and 1.3 a circuit configured to 1.3.1 (i) determine whether the multipurpose interface is connected to the data source or the different power source by distinguishing between the data signals and the electrical power and 1.3.2 (ii) provide to the processor a trigger signal, the trigger signal identifying whether a received electrical signal is the data signals or the electrical power, 1.4 wherein the diagnostic apparatus is configured to perform diagnostic testing on vehicle components and systems.
System separation device comprising at least - a tank for a liquid that builds a predetermined liquid level in the tank, wherein above said liquid level, there is a gas cushion in the tank, - an inlet in a upper region of the tank for feeding the tank from a first fluid system, - an outlet in a lower region of the tank for forwarding the liquid to a second fluid system, wherein the tank is pressure-proof, such that the gas cushion above the liquid level is under the pressure of the inlet, characterized in that at least one germicide is arranged in the region of the gas cushion and the germicide comprises at least one UV light source for irradiating the tank wall and the inlet with ultraviolet light. - a tank for a liquid that builds a predetermined liquid level in the tank, wherein above said liquid level, there is a gas cushion in the tank, - an inlet in a upper region of the tank for feeding the tank from a first fluid system, - an outlet in a lower region of the tank for forwarding the liquid to a second fluid system,
An endoprosthesis comprising a multiple phase ferrous steel comprising 16.0- 18.0 wt% chromium; 6.0-8.0 wt% nickel; 0.8-1.2 wt% tungsten; 0.6- 0.9 wt% molybdenum; 0.2-0.25 wt% nitrogen; at most 2.0 wt% manganese; at most 0.75 wt% silicon; at most 0.03 wt% phosphorus; at most 0.02 wt% sulphur and at most 0.03 wt% carbon, the balance being iron.
Switch cabinet door for a switch cabinet housing, the switch cabinet door having on the inner side of its door leaf at least one reinforcing profile which has a U-shape in cross-section perpendicular to its longitudinal direction, with two parallel flanges, which stand up on the inner side via their free longitudinal edges and are connected to the inner side at least in sections in a material-fitting manner, characterized in that the reinforcing profile has a mounting profile side, wherein the mounting profile side extends perpendicularly to and between the flanges, the mounting profile side having a gap and a groove-shaped recess opening into the gap, the groove-shaped recess having a dimension in the direction perpendicular to the flanges, which is smaller than a perpendicular distance of the flanges to each other, and wherein a grounding bolt engages with its bolt head behind the groove-shaped recess and protrudes with its thread from the reinforcing profile via the groove-shaped recess.
A cutting tool life setting method, which comprises: obtaining at least two groups of previous cutting parameters of a cutting tool; for each of the obtained at least two groups of previous cutting parameters, obtaining at least two tool replacement records of the cutting tool when the group of previous cutting parameters is used; fitting the failure time distribution of the cutting tool on the basis of the at least two tool replacement records of the cutting tool when the group of previous cutting parameters is used; receiving a group of predefined cutting parameters of a target cutting tool; and setting the tool life of the target cutting tool according to the group of predefined cutting parameters, the at least two groups of previous cutting parameters, and the failure time distribution corresponding to each group of previous cutting parameters. obtaining at least two groups of previous cutting parameters of a cutting tool; for each of the obtained at least two groups of previous cutting parameters, obtaining at least two tool replacement records of the cutting tool when the group of previous cutting parameters is used; fitting the failure time distribution of the cutting tool on the basis of the at least two tool replacement records of the cutting tool when the group of previous cutting parameters is used; receiving a group of predefined cutting parameters of a target cutting tool; and setting the tool life of the target cutting tool according to the group of predefined cutting parameters, the at least two groups of previous cutting parameters, and the failure time distribution corresponding to each group of previous cutting parameters.
A nomadic device configured to transmit a activation signal to a vehicle equipped with a passive entry passive start (PEPS) vehicle security system configured to activate a vehicle function when an activation signal is received, said nomadic device comprising: a magnetic field sensor configured to detect a change of a magnetic field relative to the nomadic device; and a processor configured to emit an activation signal only if the change corresponds to walking by an operator carrying the nomadic device, characterized in that the change corresponds to walking by the operator carrying the nomadic device if an angular change greater than a minimum angular threshold alternates at a change frequency greater than a minimum frequency threshold, wherein the change corresponds to walking by the operator carrying the nomadic device if the angular change is also less than a maximum angular threshold; and wherein the change also corresponds to walking by the operator carrying the nomadic device if the angular change is greater than a turning angle threshold that occurs in less than a turning time threshold. a magnetic field sensor configured to detect a change of a magnetic field relative to the nomadic device; and a processor configured to emit an activation signal only if the change corresponds to walking by an operator carrying the nomadic device, characterized in that the change corresponds to walking by the operator carrying the nomadic device if an angular change greater than a minimum angular threshold alternates at a change frequency greater than a minimum frequency threshold, wherein the change corresponds to walking by the operator carrying the nomadic device if the angular change is also less than a maximum angular threshold; and wherein the change also corresponds to walking by the operator carrying the nomadic device if the angular change is greater than a turning angle threshold that occurs in less than a turning time threshold.
A hearing instrument, comprising a shell configured to be at least partially inserted into a human ear canal, and a sound tube arranged in the shell, configured to guide sound emitted by a receiver or loudspeaker, wherein a filter insert is arranged to cover a sound outlet opening of the sound tube and is held against the sound outlet opening by at least one elastic element attached to the shell allowing the filter insert to be pulled away from the shell against a retraction force of the elastic element, characterized in that the elastic element is a tension spring or an elastic cord.
Arrangement of high-temperature heating plates, a radiator cover and a fastening means for the high-temperature heating plates with a spatial separation between the high-temperature heating plates and the radiator cover (50, 100, 110, 120) which consists at least of a front panel (47, 111, 121) and a grating (55, 102, 124), wherein at least two support elements (2, 3) with fastening brackets for the high-temperature heating plates are provided, characterized in that the fastening means additionally consists of two side panels (53, 54, 103, 104, 114, 115, 122, 123), the at least two support elements (2, 3) are interconnected by at least one upper or lower air passage element (4, 5), the lower air passage element being provided for placing the radiator cover.
Method for compensating beam angle variation of a beam bundle of laser beams generated by a diffractive optical element with respective beam angles, comprising the steps: - determining a beam angle value from at least one beam angle of a first subset of the laser beams, - detecting a light pattern projected with a second subset of the laser beams, - evaluating the light pattern, wherein the evaluation is performed taking into account the beam angle variation of the beam angles of the second subset of the laser beams on the basis of the determined beam angle value, characterised in that the beam angle value is determined using a first sensor arrangement, the first sensor arrangement being assigned to an illumination in which the beam bundle of laser beams is generated, only the second subset of the laser beams for projecting the light pattern leaving the illumination. - determining a beam angle value from at least one beam angle of a first subset of the laser beams, - detecting a light pattern projected with a second subset of the laser beams, - evaluating the light pattern, wherein the evaluation is performed taking into account the beam angle variation of the beam angles of the second subset of the laser beams on the basis of the determined beam angle value,
A method of preparing a humidity-activated material in a form of a coating or film comprising: (a) dispersing a volatile component having a boiling point between 40°C and 300°C in an aqueous solution or dispersion of a binder component to give a mixture; (b) casting the mixture onto a packaging material or solid substrate; and (c) solidifying the mixture to generate a coating on the packaging material or solid substrate; wherein the binder component comprises polyvinyl alcohol; wherein the mixture has a viscosity of from 100 to 50,000 mPa*s (cPs) at 25°C and wherein the solidifying step comprises drying with a stream of gas. (a) dispersing a volatile component having a boiling point between 40°C and 300°C in an aqueous solution or dispersion of a binder component to give a mixture; (b) casting the mixture onto a packaging material or solid substrate; and (c) solidifying the mixture to generate a coating on the packaging material or solid substrate; wherein the binder component comprises polyvinyl alcohol; wherein the mixture has a viscosity of from 100 to 50,000 mPa*s (cPs) at 25°C and wherein the solidifying step comprises drying with a stream of gas. wherein the binder component comprises polyvinyl alcohol; wherein the mixture has a viscosity of from 100 to 50,000 mPa*s (cPs) at 25°C and wherein the solidifying step comprises drying with a stream of gas.