mhurhangee/patent-ind-claim-en huggingface dataset:
A filter system comprising a housing , a fluid inlet formed in a housing wall , a fluid outlet formed in a housing wall , a primary filter element and a secondary filter element , both being accommodated in the housing , wherein the secondary filter element is arranged downstream the primary filter element on a stand pipe , the stand pipe being rigidly connected to one of the housing walls , the inside of the stand pipe being in fluid connection with the fluid outlet , wherein the secondary filter element comprises a filter medium forming a body having at least one longitudinal seam along a longitudinal axis (L), wherein the secondary filter element comprises an end cap at its top region , wherein the secondary filter element and the stand pipe are mutually connected at one of their top regions by connection elements , wherein the end cap is provided with one or more connection elements which connect the secondary filter element to the stand pipe, characterized in that the secondary filter element and the stand pipe are configured with mutual self-positioning elements to arrange the secondary filter element on the stand pipe in a defined rotational position with respect to one or more struts of the stand pipe , wherein the mutual self-positioning elements comprise a guiding surface and a projection element , wherein the guiding surface is intended to guide the projection element from an initial position to a final position where the secondary filter element is in its defined rotational position with respect to the one or more struts of the stand pipe . wherein the secondary filter element is arranged downstream the primary filter element on a stand pipe , the stand pipe being rigidly connected to one of the housing walls , the inside of the stand pipe being in fluid connection with the fluid outlet , wherein the secondary filter element comprises a filter medium forming a body having at least one longitudinal seam along a longitudinal axis (L), wherein the secondary filter element comprises an end cap at its top region , wherein the secondary filter element and the stand pipe are mutually connected at one of their top regions by connection elements , wherein the end cap is provided with one or more connection elements which connect the secondary filter element to the stand pipe, characterized in that the secondary filter element and the stand pipe are configured with mutual self-positioning elements to arrange the secondary filter element on the stand pipe in a defined rotational position with respect to one or more struts of the stand pipe , wherein the mutual self-positioning elements comprise a guiding surface and a projection element , wherein the guiding surface is intended to guide the projection element from an initial position to a final position where the secondary filter element is in its defined rotational position with respect to the one or more struts of the stand pipe .
A detector arrangement for determining a mutual position or a mutual state of motion of at least two structural parts of a mobile work machine , the structural parts being rotatable in relation to one another at least in one direction of rotation, characterized in that the detector arrangement comprises detectors which are arrangeable in each said structural part and which detectors are configured to determine at least in one direction of measurement at least two different measured variables, a first and a second measured variable, for each direction of measurement, the measured variables enabling at least structural-part-specific position or state of motion information on the structural part to be determined in relation to at least one predetermined angle reference, and a data processing means configured to receive a first and a second measurement signal describing the first and the second measured variable transmitted by the detectors and to determine each piece of the structural-part-specific position or state of motion information on the basis of the first and the second measurement signal as well as to determine at least the mutual position or mutual state of motion of the structural parts on the basis of the structural-part-specific position or state of motion information, wherein the structural parts comprise at least two frame parts of the mobile work machine, and wherein the mutual position of these structural parts comprises at least articulation angle information.
A power tool , comprising: an electric motor ; a functional accessory capable of being driven by the electric motor; a detection device for detecting a rotational speed of the electric motor; and a controller for controlling the rotational speed (S) of the electric motor via use of a control signal, to cause the electric motor to operate at a lower rotational speed under a lower load and at a higher rotational speed under a higher load, characterized in that the controller is operable to estimate a load parameter according to a duty cycle of the control signal and the rotational speed of the electric motor whereby the estimated load parameter is used by the controller for controlling the rotational speed of the electric motor. an electric motor ; a functional accessory capable of being driven by the electric motor; a detection device for detecting a rotational speed of the electric motor; and a controller for controlling the rotational speed (S) of the electric motor via use of a control signal, to cause the electric motor to operate at a lower rotational speed under a lower load and at a higher rotational speed under a higher load, characterized in that the controller is operable to estimate a load parameter according to a duty cycle of the control signal and the rotational speed of the electric motor whereby the estimated load parameter is used by the controller for controlling the rotational speed of the electric motor.
An equipment for reclamation of used foundry sand, especially with an inorganic geopolymer binder system, the equipment comprising a container casing , in which shafts are arranged at a certain distance between them and are provided with impact bars , wherein spaced from the bottom of the container casing there is a permeable bottom of a fluidized bed attached on a carrier , and further, the container casing is in its upper part provided with a dosing opening , wherein in its lower part the container casing has an unloading opening , and wherein in the container casing there is arranged a pair of vertically oriented shafts on which cylindrical impact bars are attached, characterized in that the container casing has in its ground plan section the shape of an oval, and the inside of the container casing is provided with a wear-resistant lining .
A medical system for ultrasonic decomposition of intraluminal clots, comprising: a stylet configured to insert into a lumen of a catheter including a fluid, the stylet including: one or more electrical impedance sensors in a distal portion of the stylet , the one-or-more impedance sensors configured to detect changes in impedance for identifying intraluminal clots in the catheter ; and one or more ultrasound transducers embedded in the distal portion of the stylet , the one-or-more ultrasousnd transducers configured for decomposing the intraluminal clots to reestablish patency in the catheter . one or more electrical impedance sensors in a distal portion of the stylet , the one-or-more impedance sensors configured to detect changes in impedance for identifying intraluminal clots in the catheter ; and one or more ultrasound transducers embedded in the distal portion of the stylet , the one-or-more ultrasousnd transducers configured for decomposing the intraluminal clots to reestablish patency in the catheter .
Method for producing a template (8a; 8b; 8c) for mounting a screen device (7a; 7b; 7c), in particular a screen for closure, for covering, for solar protection, relative to a building structure , the template (8a; 8b; 8c) comprising a template reference frame, the template reference frame comprising a marker (15a, 11a, 13a; 16b, 14b, 17b; 16c, 12c, 14c) for positioning and orienting the template and a mounting marker (9a; 9b; 9c), the method comprising a step of positioning and producing the mounting marker (9a; 9b; 9c) on the template (8a; 8b; 8c), the mounting marker being positioned relative to the marker for positioning and orienting the template, the positioning of the mounting marker relative to the marker for positioning and orienting the template being dependent on a dimension of the screen device and on a dimension (L) relative to the building structure , in particular dependent on a ratio between a dimension of the screen device and a dimension (L) relative to the building structure , the method comprising: - a step of providing the dimension of the screen device and the dimension (L; Lf) relative to the building structure or a step of providing a ratio of these dimensions, and - a step of calculating a measurement (da; db; dc), taking into account the dimensions or the ratio of these dimensions from the preceding step, and positioning the mounting marker (9a; 9b; 9c) relative to the marker for positioning and orienting the template. - a step of providing the dimension of the screen device and the dimension (L; Lf) relative to the building structure or a step of providing a ratio of these dimensions, and - a step of calculating a measurement (da; db; dc), taking into account the dimensions or the ratio of these dimensions from the preceding step, and positioning the mounting marker (9a; 9b; 9c) relative to the marker for positioning and orienting the template.
A method for managing traffic-overload in a DNS server during a network overload, the method comprising: Monitoring traffic associated with the DNS server , wherein the traffic includes a plurality of requests received by the DNS server and a plurality of responses transmitted by the DNS server ; Identifying an occurrence of an event to trigger a rescue mode, wherein the rescue mode enables implementation of at least one policy for handling of the traffic associated with the DNS server ; and Implementing the at least one policy upon occurrence of the event for handling the traffic, the method being characterized in that the at least one policy comprises: segregating the plurality of requests into a first set of requests, a second set of requests, and a third set of requests based on availability of responses in a cache corresponding to the plurality of requests, and a Time to Live, TTL, associated with the responses, wherein the cache is associated with the DNS server ; identifying with respect to the first set of requests from amongst the plurality of requests, a first set of responses stored in the cache and expired based on the TTL, wherein the first set of responses include at least one response for each request from amongst the first set of requests; and after said identifying step, transmitting directly the first set of responses to a plurality of client devices, wherein the first set of responses includes expired data. Monitoring traffic associated with the DNS server , wherein the traffic includes a plurality of requests received by the DNS server and a plurality of responses transmitted by the DNS server ; Identifying an occurrence of an event to trigger a rescue mode, wherein the rescue mode enables implementation of at least one policy for handling of the traffic associated with the DNS server ; and Implementing the at least one policy upon occurrence of the event for handling the traffic, the method being characterized in that the at least one policy comprises: segregating the plurality of requests into a first set of requests, a second set of requests, and a third set of requests based on availability of responses in a cache corresponding to the plurality of requests, and a Time to Live, TTL, associated with the responses, wherein the cache is associated with the DNS server ; identifying with respect to the first set of requests from amongst the plurality of requests, a first set of responses stored in the cache and expired based on the TTL, wherein the first set of responses include at least one response for each request from amongst the first set of requests; and after said identifying step, transmitting directly the first set of responses to a plurality of client devices, wherein the first set of responses includes expired data.
A coil support for an electrical coil arrangement , wherein the coil support comprises a winding receptacle region for at least one circumferential portion of a coil winding , which winding receptacle region is delimited by a winding receptacle region inner surface for contact with an innermost winding layer of the coil winding and at least one first end piece protruding away from the winding receptacle region inner surface , characterized in that a fluid receptacle reservoir , which is enclosed at least in regions, is arranged on a side of the first end piece facing away from the winding receptacle region , the fluid receptacle reservoir is connected using a fluid passage opening to the winding receptacle region , and the fluid passage opening is arranged adjoining the winding receptacle region inner surface .
A cartomizer, comprising: a liquid media storage tank ; a heater coil casing forming a heater coil chamber and comprising a heater coil support and a heater coil housing , wherein - the heater coil support includes chamber air inlets (326 1 , 326 2 ), and first and second notches (363 1 ,363 2 ); and - the heater coil housing includes a neck portion and a base portion , wherein the neck portion forms a chamber air outlet ; a heater coil wrapped around a wick ; the wick extending through the notches (363 1 ,363 2 ) into recessed pockets in the liquid media storage tank , the wick being perpendicular to a longitudinal axis of the cartomizer; a first end of an inner tube inserted into the neck portion of the heater coil housing ; and a second end of the inner tube inserted to a proximal seal , the proximal seal placed between the inner tube and a mouth piece , the mouthpiece having an outlet . a liquid media storage tank ; a heater coil casing forming a heater coil chamber and comprising a heater coil support and a heater coil housing , wherein - the heater coil support includes chamber air inlets (326 1 , 326 2 ), and first and second notches (363 1 ,363 2 ); and - the heater coil housing includes a neck portion and a base portion , wherein the neck portion forms a chamber air outlet ; - the heater coil support includes chamber air inlets (326 1 , 326 2 ), and first and second notches (363 1 ,363 2 ); and - the heater coil housing includes a neck portion and a base portion , wherein the neck portion forms a chamber air outlet ; a heater coil wrapped around a wick ; the wick extending through the notches (363 1 ,363 2 ) into recessed pockets in the liquid media storage tank , the wick being perpendicular to a longitudinal axis of the cartomizer; a first end of an inner tube inserted into the neck portion of the heater coil housing ; and a second end of the inner tube inserted to a proximal seal , the proximal seal placed between the inner tube and a mouth piece , the mouthpiece having an outlet .
An energy discriminating electron detector comprising: a main electrode disposed between an energy beam radiating device radiating an electron or ion beam through an objective lens and an object emitting electrons in response to the irradiation of the ion or electron beam, the main electrode being applied with an negative voltage; and an electron detector disposed remotely from the main electrode on the object side thereof, the electron detector detecting electrons which are those emitted from the object and reflected by the main electrode; characterised in that the energy discriminating electron detector further comprises a shield electrode disposed at least between the main electrode and the object, the shield electrode shielding an electric field caused by the negative voltage applied to the main electrode, wherein the shield electrode on the object side is a grid electrode. a main electrode disposed between an energy beam radiating device radiating an electron or ion beam through an objective lens and an object emitting electrons in response to the irradiation of the ion or electron beam, the main electrode being applied with an negative voltage; and an electron detector disposed remotely from the main electrode on the object side thereof, the electron detector detecting electrons which are those emitted from the object and reflected by the main electrode; characterised in that the energy discriminating electron detector further comprises a shield electrode disposed at least between the main electrode and the object, the shield electrode shielding an electric field caused by the negative voltage applied to the main electrode, wherein the shield electrode on the object side is a grid electrode.
A device, comprising: means for selecting an area of interest of a cardiac tissue; means for identifying measurement locations in the selected area of interest; means for placing an electrocatheter probe at the measurement locations; means for providing a broadband signal to the measurement locations using the electrocatheter probe; means for identifying a diastolic phase of the cardiac cycle; means for measuring impedance of the cardiac tissue at the measurement locations during the identified diastolic phase; means for identifying a systolic phase of the cardiac cycle; means for measuring impedance of the cardiac tissue at the measurement locations during the identified systolic phase; means for assessing said cardiac tissue based on said diastolic and systolic impedance measurements at the measurement locations, said means for assessing the cardiac tissue including means for: identifying a resistivity and a phase angle of the impedance measurements at the measurement locations, and the means for assessing said cardiac tissue further being characterized by comprising means for: determining a fibrosis degree at the measurement locations based on a negative correlation between resistivity and fibrosis degree and on a positive correlation between phase angle and fibrosis degree, and identifying an infarct scar extent and transmurality depending on the determined fibrosis degree at the measurement locations. means for selecting an area of interest of a cardiac tissue; means for identifying measurement locations in the selected area of interest; means for placing an electrocatheter probe at the measurement locations; means for providing a broadband signal to the measurement locations using the electrocatheter probe; means for identifying a diastolic phase of the cardiac cycle; means for measuring impedance of the cardiac tissue at the measurement locations during the identified diastolic phase; means for identifying a systolic phase of the cardiac cycle; means for measuring impedance of the cardiac tissue at the measurement locations during the identified systolic phase; means for assessing said cardiac tissue based on said diastolic and systolic impedance measurements at the measurement locations, said means for assessing the cardiac tissue including means for: identifying a resistivity and a phase angle of the impedance measurements at the measurement locations, and the means for assessing said cardiac tissue further being characterized by comprising means for: determining a fibrosis degree at the measurement locations based on a negative correlation between resistivity and fibrosis degree and on a positive correlation between phase angle and fibrosis degree, and identifying an infarct scar extent and transmurality depending on the determined fibrosis degree at the measurement locations. determining a fibrosis degree at the measurement locations based on a negative correlation between resistivity and fibrosis degree and on a positive correlation between phase angle and fibrosis degree, and identifying an infarct scar extent and transmurality depending on the determined fibrosis degree at the measurement locations.
A process for the preparation of a fibrous composition, the process comprising (i) providing a casein-containing milk-based liquid; (ii) subjecting said liquid to a treatment step to capture free calcium ions present in said fluid, thereby obtaining a calcium ions-depleted casein liquid; (iii) adding a hydrocolloid capable of precipitating with divalent or polyvalent metal cations to the calcium ions-depleted casein liquid, with mixing and homogenizing so as to obtain a homogenous fibre-generation liquid mass; (iv), contacting the fibre-generation liquid mass with an aqueous solution comprising divalent or polyvalent metal cations, thereby forming fibres; wherein said treatment step comprises increasing the temperature of said liquid to at least 60°C, thereby enabling native milk phosphate to capture free calcium ions. (i) providing a casein-containing milk-based liquid; (ii) subjecting said liquid to a treatment step to capture free calcium ions present in said fluid, thereby obtaining a calcium ions-depleted casein liquid; (iii) adding a hydrocolloid capable of precipitating with divalent or polyvalent metal cations to the calcium ions-depleted casein liquid, with mixing and homogenizing so as to obtain a homogenous fibre-generation liquid mass; (iv), contacting the fibre-generation liquid mass with an aqueous solution comprising divalent or polyvalent metal cations, thereby forming fibres; wherein said treatment step comprises increasing the temperature of said liquid to at least 60°C, thereby enabling native milk phosphate to capture free calcium ions.
A filter comprising: (a) a porous filter element comprising a cylindrical porous metal medium having a hollow interior , a first end , and a second end , the porous metal medium having an inner surface defining the hollow interior of the porous metal medium; (b) a first porous metal end cap formed at the first end of the porous metal medium, the first porous metal end cap having an inner surface facing the first end of the porous metal medium; (c) a second porous metal end cap formed at the second end of the porous metal medium, the second porous metal end cap having an inner surface facing the second end of the porous metal medium; wherein the inner surface of the first porous metal end cap and the inner surface of the second porous metal end cap include a plurality of porous ribs extending from the inner surface toward the hollow interior. (a) a porous filter element comprising a cylindrical porous metal medium having a hollow interior , a first end , and a second end , the porous metal medium having an inner surface defining the hollow interior of the porous metal medium; (b) a first porous metal end cap formed at the first end of the porous metal medium, the first porous metal end cap having an inner surface facing the first end of the porous metal medium; (c) a second porous metal end cap formed at the second end of the porous metal medium, the second porous metal end cap having an inner surface facing the second end of the porous metal medium; wherein the inner surface of the first porous metal end cap and the inner surface of the second porous metal end cap include a plurality of porous ribs extending from the inner surface toward the hollow interior.